Beta
How does contact area change compression?
Use the same force, mass and damper on the same ideal spring foundation. Change contact area to compare compression and oscillation.
Diagram and inputs ↓Choose another visualization (19 topics)
Same load, different supporting feet
A 1 kg equivalent load, 9.80665 N, uniform on a circular contact face.
All three diameters use one scale. Results are mean pressure, not indentation or failure predictions.
More numeric references and examples
Compare values with everyday references
Baseline: 1 kg on a uniform circular contact 1 cm across gives about 125 kPa
Compare values and familiar conditions, then apply a representative example.
A circular contact 1 cm across, uniformly supporting 1 kg, or 1 L water equivalent.
A circular contact 3 cm across, uniformly supporting 1 kg, or 1 L water equivalent.
A circular contact 10 cm across, uniformly supporting 10 kg, or 10 L water equivalent.
More references (3)
A circular contact 2 cm across, uniformly supporting 1 kg, or 1 L water equivalent.
A circular contact 5 cm across, uniformly supporting 5 kg, or 5 L water equivalent.
A circular contact 1 cm across, uniformly supporting 0.1 kg, or 0.1 L water equivalent.
Reference conditions
Pressure = force / area, assuming uniform contact pressure. Does not assess real feet, flooring or effects on the body.
Visual preview
ReadySpatial schematic · circular contact face
p=F/A, K=kA×A, m x″+c x′+Kx=F. x=0 is the equilibrium under gravity/preload; additional force F is applied at t=0. Initial displacement and velocity are zero. This is an ideal foundation, not a prediction for a named material.
Enter your own values (open here)
Conditions
p=F/A, K=kA×A, m x″+c x′+Kx=F. x=0 is the equilibrium under gravity/preload; additional force F is applied at t=0. Initial displacement and velocity are zero. This is an ideal foundation, not a prediction for a named material.
Motion conditions and equations
Conditions represented by this motion
p=F/A, K=kA×A, m x″+c x′+Kx=F. x=0 is the equilibrium under gravity/preload; additional force F is applied at t=0. Initial displacement and velocity are zero. This is an ideal foundation, not a prediction for a named material.
Foundation stiffness per area kA, plunger mass m and damping c define displacement through the equation of motion. Displacement magnification is shared by A/B. Plasticity and lateral coupling within the foundation are excluded.
圧力から押す力へ
- 1. 単位をそろえる圧力の単位換算 →
- 2. 必要な条件で計算するシリンダーの推力 →
- 3. 動き・違いを図で見る圧力と接触面積現在のページ
シリンダー内径・ロッド径・背圧・損失も指定します。圧力だけでは推力は決まりません。
各ツールは別の条件で開きます。数値は自動転記されません。From pressure to pushing force
- 1. Match the unitsPressure unit converter →
- 2. Calculate with the required inputsPneumatic cylinder thrust →
- 3. See the motion or differencePressure and contact areaCurrent page
Also enter bore, rod diameter, back pressure and losses. Pressure alone does not determine thrust.
Each tool opens with its own conditions. Values are not transferred automatically.De presión a fuerza de empuje
- 1. Unificar unidadesConversor de unidades de presión →
- 2. Calcular con los datos necesariosEmpuje de un cilindro neumático →Inglés
- 3. Ver el movimiento o la diferenciaPresión y área de contactoPágina actual
Introduce también diámetros del cilindro y del vástago, contrapresión y pérdidas. La presión sola no determina el empuje.
Cada herramienta usa sus propias condiciones. Los valores no se transfieren automáticamente.Da pressão à força de avanço
- 1. Igualar as unidadesConversor de unidades de pressão →
- 2. Calcular com os dados necessáriosForça de cilindro pneumático →Inglês
- 3. Ver o movimento ou a diferençaPressão e área de contatoPágina atual
Informe também diâmetros do cilindro e da haste, contrapressão e perdas. A pressão sozinha não determina a força.
Cada ferramenta usa condições próprias. Os valores não são transferidos automaticamente.Vom Druck zur Schubkraft
- 1. Einheiten vereinheitlichenDruckeinheiten umrechnen →
- 2. Mit den nötigen Angaben berechnenKraft eines Pneumatikzylinders →Englisch
- 3. Bewegung oder Unterschied ansehenDruck und KontaktflächeAktuelle Seite
Auch Kolben- und Stangendurchmesser, Gegendruck und Verluste eingeben. Druck allein bestimmt die Kraft nicht.
Jedes Werkzeug verwendet eigene Bedingungen. Werte werden nicht automatisch übertragen.De la pression à la poussée
- 1. Uniformiser les unitésConvertisseur d’unités de pression →
- 2. Calculer avec les données nécessairesPoussée d'un vérin pneumatique →Anglais
- 3. Voir le mouvement ou la différencePression et surface de contactPage actuelle
Saisissez aussi les diamètres du piston et de la tige, la contre-pression et les pertes. La pression seule ne détermine pas la poussée.
Chaque outil utilise ses propres conditions. Les valeurs ne sont pas transférées automatiquement.दबाव से धकेलने का बल
- 1. इकाइयाँ समान करेंदबाव की इकाई बदलें →
- 2. ज़रूरी मान देकर गणना करेंवायवीय सिलिंडर का बल →अंग्रेज़ी
- 3. गति या अंतर देखेंदबाव और संपर्क क्षेत्रफलवर्तमान पृष्ठ
बोर, रॉड का व्यास, पीछे का दबाव और हानियाँ भी दें। केवल दबाव से बल तय नहीं होता।
हर टूल की शर्तें अलग हैं। मान अपने-आप स्थानांतरित नहीं होते।Dari tekanan ke gaya dorong
- 1. Samakan satuanKonverter satuan tekanan →
- 2. Hitung dengan data yang diperlukanGaya silinder pneumatik →Inggris
- 3. Lihat gerakan atau perbedaannyaTekanan dan luas kontakHalaman saat ini
Masukkan juga diameter silinder dan batang, tekanan balik, serta rugi-rugi. Tekanan saja tidak menentukan gaya.
Setiap alat memakai kondisi sendiri. Nilai tidak dipindahkan secara otomatis.압력에서 미는 힘으로
- 1. 단위를 맞추기압력 단위 변환기 →
- 2. 필요한 조건으로 계산하기공압 실린더 추력 →영어
- 3. 움직임과 차이를 그림으로 보기압력과 접촉 면적현재 페이지
실린더 내경·로드 지름·배압·손실도 입력합니다. 압력만으로 추력이 정해지지는 않습니다.
각 도구는 별도의 조건으로 열립니다. 수치는 자동으로 전달되지 않습니다.