mhurhangee/ep-ind-claims huggingface dataset:
An acrylic composition, comprising: a first component that accounts for 20 wt% to 40 wt% of the total weight of the acrylic composition, the first component including an olefin block copolymer comprising hard segments and soft segments, the soft segments having from 9 mol % to less than 15 mol % of comonomer content; a second component that accounts for at least 25 wt% of the total weight of the acrylic composition, the second component including at least one oil and at least one polyolefin; and a third component that accounts for at least 15 wt% of the total weight of the acrylic composition, the third component including acrylic particles having an average particle size from 0.5 μm to 30 μm and at least one inorganic filler, and the acrylic particles accounting for at least 10 wt% of the total weight of the third component. a first component that accounts for 20 wt% to 40 wt% of the total weight of the acrylic composition, the first component including an olefin block copolymer comprising hard segments and soft segments, the soft segments having from 9 mol % to less than 15 mol % of comonomer content; a second component that accounts for at least 25 wt% of the total weight of the acrylic composition, the second component including at least one oil and at least one polyolefin; and a third component that accounts for at least 15 wt% of the total weight of the acrylic composition, the third component including acrylic particles having an average particle size from 0.5 μm to 30 μm and at least one inorganic filler, and the acrylic particles accounting for at least 10 wt% of the total weight of the third component.
A pressure sensor comprising: a base, having a high-pressure contact portion (205, 207); a diaphragm positioned over the base and having an external top surface opposite the base, defined within a closed perimeter and external side surfaces (206, 208) extending down from an entirety of the closed perimeter toward the base, and a high-pressure contact portion aligned with and separated by a gap from the high-pressure contact portion of the base, the high-pressure contact portion of the diaphragm includes a central main boss and a secondary boss that is separated from the main boss by a channel; and a sensing element coupled to the diaphragm and providing an output based on changes to the diaphragm; wherein when a hydrostatic pressure load above a threshold value is applied to the entire external top surface and external side surfaces (206, 208), the hydrostatic pressure load causes the high-pressure contact portion of the diaphragm to contact the high-pressure contact portion of the base, wherein an interior portion acts as a secondary deflectable region and continues to deflect with increases in the hydrostatic pressure load to provide a monotonic output of the sensing element with pressure changes of the fluid after the high-pressure contact portion of the diaphragm contacts the base, and wherein after the high-pressure contact portion of the diaphragm contacts the base, the lateral hydrostatic pressure load on the external side surfaces of the diaphragm causes lateral compression of the diaphragm. a base, having a high-pressure contact portion (205, 207); a diaphragm positioned over the base and having an external top surface opposite the base, defined within a closed perimeter and external side surfaces (206, 208) extending down from an entirety of the closed perimeter toward the base, and a high-pressure contact portion aligned with and separated by a gap from the high-pressure contact portion of the base, the high-pressure contact portion of the diaphragm includes a central main boss and a secondary boss that is separated from the main boss by a channel; and a sensing element coupled to the diaphragm and providing an output based on changes to the diaphragm; wherein when a hydrostatic pressure load above a threshold value is applied to the entire external top surface and external side surfaces (206, 208), the hydrostatic pressure load causes the high-pressure contact portion of the diaphragm to contact the high-pressure contact portion of the base, wherein an interior portion acts as a secondary deflectable region and continues to deflect with increases in the hydrostatic pressure load to provide a monotonic output of the sensing element with pressure changes of the fluid after the high-pressure contact portion of the diaphragm contacts the base, and wherein after the high-pressure contact portion of the diaphragm contacts the base, the lateral hydrostatic pressure load on the external side surfaces of the diaphragm causes lateral compression of the diaphragm.
A method of monitoring genotoxic stress in a test subject, comprising: - isolating microvesicles from a biological sample from the test subject, - detecting the expression level of micro vesicle-associated H2AX in a biological sample from the test subject, wherein H2AX is contained within the microvesicle, and - monitoring genotoxic stress in the subject based on the expression level of the microvesicle-associated H2AX. - isolating microvesicles from a biological sample from the test subject, - detecting the expression level of micro vesicle-associated H2AX in a biological sample from the test subject, wherein H2AX is contained within the microvesicle, and - monitoring genotoxic stress in the subject based on the expression level of the microvesicle-associated H2AX.
An actuator and valve arrangement comprising: an actuator and valve portion (225, 226); at least one housing including the valve portion having a first port for receiving a fluid and a second port for delivering a fluid, a valve seat disposed between the first and second port, a valve member operable with the valve seat for controlling fluid flow between the inlet and outlet ports; a valve stem operably connected to the valve member, having a longitudinal axis, a first end and a second end, the valve member is attached at the first end; a ball bearing, operably connected to the valve stem by a bearing shaft having an extended portion, for transmitting an operating force to the valve stem to force movement of the valve stem in a first direction; an actuator including a cam gear having a cam portion and a return feature that extends axially from the cam gear surface and is formed about a central through-hole of the cam gear, the return feature comprising a return feature surface that is radially offset by a constant value that will follow the eccentric profile of the cam portion relative to the central through-hole of the cam gear; wherein the ball bearing bears against the cam portion to force movement of the valve stem in the first direction and the extended portion of the bearing shaft bears against the return feature surface to force movement of the valve stem in a second direction. an actuator and valve portion (225, 226); at least one housing including the valve portion having a first port for receiving a fluid and a second port for delivering a fluid, a valve seat disposed between the first and second port, a valve member operable with the valve seat for controlling fluid flow between the inlet and outlet ports; a valve stem operably connected to the valve member, having a longitudinal axis, a first end and a second end, the valve member is attached at the first end; a ball bearing, operably connected to the valve stem by a bearing shaft having an extended portion, for transmitting an operating force to the valve stem to force movement of the valve stem in a first direction; an actuator including a cam gear having a cam portion and a return feature that extends axially from the cam gear surface and is formed about a central through-hole of the cam gear, the return feature comprising a return feature surface that is radially offset by a constant value that will follow the eccentric profile of the cam portion relative to the central through-hole of the cam gear; wherein the ball bearing bears against the cam portion to force movement of the valve stem in the first direction and the extended portion of the bearing shaft bears against the return feature surface to force movement of the valve stem in a second direction.
A refrigerator comprising a compressor, a condenser, a refrigerating chamber, a freezing chamber, a first circulation channel to cool the refrigerating chamber, a second circulation channel to cool the freezing chamber, and a channel switching valve to perform switching between the circulation channels, characterized by a first hot pipe on a freezing chamber side; a second hot pipe on a refrigerating chamber side, wherein the first hot pipe is connected to the condenser and an inlet of the channel switching valve, and the second hot pipe is connected to an outlet of the channel switching valve.
A tote handling assembly, comprising: a wiper bar extending substantially parallel to a longitudinal axis of the tote handling assembly and moveable along a transverse axis of the tote handling assembly perpendicular to the longitudinal axis, a plurality of actuators connected to and moveable with the wiper bar, a tab connected to an actuator of the plurality of actuators, the actuator being configured to move the tab in a direction substantially perpendicular to a plane including the longitudinal axis and the transverse axis to engage a wall of a tote disposed on the tote handling assembly, and a plurality of substantially cylindrical rollers extending substantially parallel to the transverse axis, each roller of the plurality of rollers being rotatable in a clockwise direction and a counterclockwise direction, wherein: movement of the wiper bar in a direction along the transverse axis, while the tab is engaged with the wall of the tote, pushes the tote, in the direction along the transverse axis, along an outer surface of at least one of the plurality of substantially cylindrical rollers. a wiper bar extending substantially parallel to a longitudinal axis of the tote handling assembly and moveable along a transverse axis of the tote handling assembly perpendicular to the longitudinal axis, a plurality of actuators connected to and moveable with the wiper bar, a tab connected to an actuator of the plurality of actuators, the actuator being configured to move the tab in a direction substantially perpendicular to a plane including the longitudinal axis and the transverse axis to engage a wall of a tote disposed on the tote handling assembly, and a plurality of substantially cylindrical rollers extending substantially parallel to the transverse axis, each roller of the plurality of rollers being rotatable in a clockwise direction and a counterclockwise direction, wherein: movement of the wiper bar in a direction along the transverse axis, while the tab is engaged with the wall of the tote, pushes the tote, in the direction along the transverse axis, along an outer surface of at least one of the plurality of substantially cylindrical rollers.
A solid-state imaging device comprising: a plurality of pixel sets each including color filters of a same color, for a plurality of colors, each pixel set including a plurality of spatially contiguous pixels, each pixel including a plurality of photoelectric conversion parts, the pixels being two-dimensionally arrayed in a pixel array, wherein of the plurality of pixels included in each pixel set, the photoelectric conversion parts of a first pixel are exposed for a first exposure time, the photoelectric conversion parts of a second pixel are exposed for a second exposure time shorter than the first exposure time, pixel signals generated in the plurality of photoelectric conversion parts of the first pixel exposed for the first exposure time are output simultaneously, and pixel signals generated in the plurality of photoelectric conversion parts of the second pixel exposed for the second exposure time are output separately. a plurality of pixel sets each including color filters of a same color, for a plurality of colors, each pixel set including a plurality of spatially contiguous pixels, each pixel including a plurality of photoelectric conversion parts, the pixels being two-dimensionally arrayed in a pixel array, wherein of the plurality of pixels included in each pixel set, the photoelectric conversion parts of a first pixel are exposed for a first exposure time, the photoelectric conversion parts of a second pixel are exposed for a second exposure time shorter than the first exposure time, pixel signals generated in the plurality of photoelectric conversion parts of the first pixel exposed for the first exposure time are output simultaneously, and pixel signals generated in the plurality of photoelectric conversion parts of the second pixel exposed for the second exposure time are output separately.
Membrane arrangement for attachment to a structural component for sound generation, comprising two piezocrystals which are attached opposite one another on the two sides of an oscillatable electrically conductive membrane, the piezocrystals each being fastened to the membrane, which comprises a connection contact, in an electrically conductive, force-transmitting manner, and the piezocystals each being electrically contacted with a contact plate on the opposite side thereof, each contact plate comprising at least one contact strip (24, 32), which extends substantially to the structural component and the free end of which comprises an electrical connection contact, the membrane arrangement being excitable by electrical voltages which can be applied to the three connection contacts (30, 34), characterised in that an electrically conductive filler material is arranged between each of the two piezocrystals and the membrane and the contact plates for electrical connection, and is interspersed with glue so as to fix the piezocrystals thereto in an electrically conductive manner, the filling material being a metal wire netting.
Bogie frame for a rail vehicle, comprising two longitudinal supports, two inner transverse supports and two outer transverse supports, wherein the longitudinal supports and at least one transverse support (2, 3) are in each case exclusively formed from an open profile, characterised in that the longitudinal supports have no top chord, but rather only a bottom chord, the outer transverse support(s) has/have no bottom chord, but rather only has/have a top chord, wherein the bottom chords of the longitudinal support rigidly transition into a top chord of the inner transverse support(s).
An agricultural forage harvester comprising a chopper drum having a plurality of knives that extend across the surface of the drum and form an outer cylindrical profile around the drum as the drum is rotated, a knife sharpening arrangement located above the drum, wherein the knife sharpening arrangement comprises a knife sharpening device and a flap of a housing in which the knife sharpening device is housed, and a hydraulic circuit for controlling movement of the knife sharpening device and the flap, wherein said circuit comprises a pressure source, a pressure sink, a multi-port valve, a first hydraulic cylinder which moves the knife sharpening device and a second hydraulic cylinder which moves the flap, characterised in that, each cylinder is connected to a respective valve arrangement (V1, V2), each respective valve arrangement will conduct fluid when a predetermined fluid pressure is reached, movement of the multiport valve moves the first or second hydraulic cylinder (Z1, Z2) and in that when one of said first or second cylinders (Z1, Z2) reaches a maximum deflection, the pressure in said circuit is greater than the predetermined fluid pressure (PRV2, PRV3) of the respective valve arrangement (VA1, VA2) of the other of said first or second cylinders (Z1, Z2) so that said other of said first or second cylinders moves.
Surgical template for remodelling of an orbito-naso-frontal bandeau, comprising: - a support, and - at least three bearing surfaces intended to be placed in contact with an orbito-naso-frontal bandeau (ONFB) taken from a patient, so as to remodel its shape intraoperatively, the bearing surfaces being defined by elements protruding relative to the support, at least one protruding element being an element attached to the support, at least one attached element having an adjustable length and/or the distance between protruding or attached elements being modifiable, characterized in that the bearing surfaces are configured such that their positioning relative to the support depends on the size of the cranium measured pre-operatively. - a support, and - at least three bearing surfaces intended to be placed in contact with an orbito-naso-frontal bandeau (ONFB) taken from a patient, so as to remodel its shape intraoperatively, the bearing surfaces being defined by elements protruding relative to the support, at least one protruding element being an element attached to the support, at least one attached element having an adjustable length and/or the distance between protruding or attached elements being modifiable, characterized in that the bearing surfaces are configured such that their positioning relative to the support depends on the size of the cranium measured pre-operatively.
An intraocular lens comprising: an optic body comprising a first hydrophobic soft acrylic copolymer; and a haptic comprising a first silicone connected to the optic body, wherein the hydrophobic soft acrylic copolymer comprises: an acrylate recurring unit; and an optionally substituted vinylaryl recurring unit; wherein a portion of at least one of the recurring units comprises a vinyldialkylsiloxy pendant group. an optic body comprising a first hydrophobic soft acrylic copolymer; and a haptic comprising a first silicone connected to the optic body, wherein the hydrophobic soft acrylic copolymer comprises: an acrylate recurring unit; and an optionally substituted vinylaryl recurring unit; wherein a portion of at least one of the recurring units comprises a vinyldialkylsiloxy pendant group. an acrylate recurring unit; and an optionally substituted vinylaryl recurring unit; wherein a portion of at least one of the recurring units comprises a vinyldialkylsiloxy pendant group.
A mobile base with a mobile base ID configured to be attached to a mobile object for supervising the mobile object inside an area, the area being divided into zones of at least two different types, namely an activation zone and a non-event prone zone, each zone being associated with one or more readers located at fixed positions and configured to create an electromagnetic field associated with each zone, receive data transmitted from the mobile base, and forward a corresponding mobile base ID to a central controller, the mobile base comprising: - one or more event detection devices, each configured to detect a predefined event, and - a communication tag, wherein the communication tag is configured to, depending on the zone type, activate or deactivate the corresponding one or more event detection devices, the event detection devices are configured to communicate a detected event with an event ID to the communication tag, and the communication tag is configured to broadcast the event ID and mobile base ID. - one or more event detection devices, each configured to detect a predefined event, and - a communication tag, wherein the communication tag is configured to, depending on the zone type, activate or deactivate the corresponding one or more event detection devices, the event detection devices are configured to communicate a detected event with an event ID to the communication tag, and the communication tag is configured to broadcast the event ID and mobile base ID. the communication tag is configured to, depending on the zone type, activate or deactivate the corresponding one or more event detection devices, the event detection devices are configured to communicate a detected event with an event ID to the communication tag, and the communication tag is configured to broadcast the event ID and mobile base ID.
A method of producing a melt comprising: directly contacting a first heating element with an inside of a solid-liquid mixture layer including a batch raw material of glass and a mixture of solid and liquid phases denatured from the batch raw material to apply thermal energy to the solid-liquid mixture layer by heat transfer from the first heating element; wherein a thermal diffusivity of the solid-liquid mixture layer is 3 mm 2 /second or less, and wherein the first heating element has an electric resistance heating element or a heat exchanger tube, supplying the batch raw material from above the solid-liquid mixture layer; and continuously producing a liquid phase melt having a bulk density greater than that of the solid-liquid mixture layer in a lower layer in contact with the solid-liquid mixture layer, wherein the thermal diffusivity is measured by the method described in Glass Technology: European Journal of Glass Science and Technology Part A, June 2018, Volume 59 Number 3, Pages 92-104. directly contacting a first heating element with an inside of a solid-liquid mixture layer including a batch raw material of glass and a mixture of solid and liquid phases denatured from the batch raw material to apply thermal energy to the solid-liquid mixture layer by heat transfer from the first heating element; wherein a thermal diffusivity of the solid-liquid mixture layer is 3 mm 2 /second or less, and wherein the first heating element has an electric resistance heating element or a heat exchanger tube, supplying the batch raw material from above the solid-liquid mixture layer; and continuously producing a liquid phase melt having a bulk density greater than that of the solid-liquid mixture layer in a lower layer in contact with the solid-liquid mixture layer, wherein the thermal diffusivity is measured by the method described in Glass Technology: European Journal of Glass Science and Technology Part A, June 2018, Volume 59 Number 3, Pages 92-104.