mhurhangee/ep-ind-claims huggingface dataset:
An rotary internal combustion engine comprising: a stator body having an internal cavity enclosed by a plurality of walls, one of the walls having an insert opening (36;136) defined in a hot area thereof and in communication with the internal cavity, at least one groove (58, 158) defined within the opening (36;136) around a perimeter thereof; a rotor body received within the internal cavity and sealingly engaged with the walls to define at least one chamber undergoing intake, compression, expansion and exhaust phases as the movable body moves; and an insert; characterized in that: at least one coolant inlet channel (88;188) is defined in the one of the walls in communication with each groove (58;158), and at least one coolant outlet channel (90;190) is defined in the one of the walls in communication with each groove (58; 158); in that a cooling jacket (50;150) lines the insert opening (36;136), the cooling jacket (50;150) cooperating with each groove (58;158) to define a cooling gallery (62; 162) around the insert opening (36; 136); and in that the insert is sealingly received in the cooling jacket (50;150), the insert being made of a material having a greater heat resistance than that of the one of the walls. a stator body having an internal cavity enclosed by a plurality of walls, one of the walls having an insert opening (36;136) defined in a hot area thereof and in communication with the internal cavity, at least one groove (58, 158) defined within the opening (36;136) around a perimeter thereof; a rotor body received within the internal cavity and sealingly engaged with the walls to define at least one chamber undergoing intake, compression, expansion and exhaust phases as the movable body moves; and an insert; characterized in that: at least one coolant inlet channel (88;188) is defined in the one of the walls in communication with each groove (58;158), and at least one coolant outlet channel (90;190) is defined in the one of the walls in communication with each groove (58; 158); in that a cooling jacket (50;150) lines the insert opening (36;136), the cooling jacket (50;150) cooperating with each groove (58;158) to define a cooling gallery (62; 162) around the insert opening (36; 136); and in that the insert is sealingly received in the cooling jacket (50;150), the insert being made of a material having a greater heat resistance than that of the one of the walls. at least one coolant inlet channel (88;188) is defined in the one of the walls in communication with each groove (58;158), and at least one coolant outlet channel (90;190) is defined in the one of the walls in communication with each groove (58; 158); in that a cooling jacket (50;150) lines the insert opening (36;136), the cooling jacket (50;150) cooperating with each groove (58;158) to define a cooling gallery (62; 162) around the insert opening (36; 136); and in that the insert is sealingly received in the cooling jacket (50;150), the insert being made of a material having a greater heat resistance than that of the one of the walls.
A vehicle-side current transmission device for the stationary charging of electrical energy stores of vehicles on charging stations by means of power-supplying contact surfaces (13, 14, 15) arranged above the vehicle, the vehicle-side current transmission device having a charge current collector which is formed as an articulated arm system and is designed to be multi-pole and has, for making stationary contact with the power-supplying contact surfaces (13, 14, 15), at least three electrical contact elements (1, 2, 3) which are isolated from one another and transmit different electrical phases characterized in that the contact elements (1, 2, 3) are arranged lying next to each other vertically to the driving direction and isolated from one another on a shared charge current collector and the charge current collector has at least one electrical contact element (1, 2, 3) which is formed as a grounding contact and in that the articulated arm system is formed as a single-arm system or as a multi-part scissor system and has a single base frame which is tightly connected to the vehicle and to which an articulated lower arm of the articulated arm system is pivotably attached and the components of the articulated arm system and of the base frame are designed as current-carrying conductors for connecting a contact element (1, 2, 3) and connection lines (11, 12) of the further electrical contact elements (1, 2, 3) extend in an electrically isolated manner along the articulated arm.
A mandrel assembly comprising: an elongated mandrel shaft having a longitudinal axis, a proximal end structured to be coupled to a mandrel carrier and a distal end; a hollow, elongated mandrel structured to be rotatably disposed about said mandrel shaft and structured to concentrically rotate about said mandrel shaft longitudinal axis; a bearing assembly disposed between said mandrel and said mandrel shaft, said bearing assembly being located at a discrete location along the mandrel shaft longitudinal axis, whereby said bearing assembly rotatably couples said mandrel to said mandrel shaft; said bearing assembly defining a virtual pivot point about which said mandrel is pivotable relative to said mandrel shaft, said virtual pivot point being disposed substantially on said mandrel shaft longitudinal axis; wherein said bearing assembly includes at least three ball bearing units; and wherein said bearing assembly is the only coupling between said mandrel shaft and said mandrel; wherein each ball bearing unit includes an outer race having an outer groove, an inner race having an inner groove and a plurality of ball bearings; said inner race is disposed radially within said outer race such that a passage is defined between the inner groove of said inner race and the outer groove of said outer race, wherein said ball bearings are disposed within said passage; said passage is oversized relative to said ball bearings; and said virtual pivot point is defined at the centre of said inner race. an elongated mandrel shaft having a longitudinal axis, a proximal end structured to be coupled to a mandrel carrier and a distal end; a hollow, elongated mandrel structured to be rotatably disposed about said mandrel shaft and structured to concentrically rotate about said mandrel shaft longitudinal axis; a bearing assembly disposed between said mandrel and said mandrel shaft, said bearing assembly being located at a discrete location along the mandrel shaft longitudinal axis, whereby said bearing assembly rotatably couples said mandrel to said mandrel shaft; said bearing assembly defining a virtual pivot point about which said mandrel is pivotable relative to said mandrel shaft, said virtual pivot point being disposed substantially on said mandrel shaft longitudinal axis; wherein said bearing assembly includes at least three ball bearing units; and wherein said bearing assembly is the only coupling between said mandrel shaft and said mandrel; wherein each ball bearing unit includes an outer race having an outer groove, an inner race having an inner groove and a plurality of ball bearings; said inner race is disposed radially within said outer race such that a passage is defined between the inner groove of said inner race and the outer groove of said outer race, wherein said ball bearings are disposed within said passage; said passage is oversized relative to said ball bearings; and said virtual pivot point is defined at the centre of said inner race.
Driving device for a hybrid vehicle having an engine for producing engine power, said engine power being split by a power split mechanism into a first part to drive a wheel directly, and into a second part to generate electricity, wherein the driving device includes a pressure reduction device provided in the engine for reducing a compression pressure inside a cylinder of the engine created while cranking the engine, and a control section configured to drive the pressure reduction device to reduce the compression pressure inside the engine cylinder when stopping the engine, characterized in that the pressure reduction device operates using a power medium other than hydraulic pressure of the engine, in particular electric power, and in that the control section is further configured to read the resonance rotational speed of the engine from a storage section as a parameter of timing at which the pressure reduction device is turned on when stopping the engine to bring it in an engine stationary mode.
An automatic device intended for homogenization of blood both in a tubing and a storage bag, with an upper roller, non-solidary with the upper shaft, which includes a protruding collar, a lower roller which is provided with a recessed collar and fits into the protruding collar of the upper roller, an upper shaft, coupled to the upper roller, an engine and respective transmission parts, a supporting element, a control system comprised of four buttons, for the downward movement of the lifting system, upward movement of the lifting system and controlling the lower and upper rollers, respectively, one for switch on and another for switch off, characterized in that it comprises: a) a steel stud attaching the lower roller to the lower shaft, which is coupled to the lower roller and connected to a driving belt which is provided with two bearings, one at each end; b) Two shoes resting over a support, the shoes holder; c) two endless spindles, each one including a toothed wheel, these being connected to each other by a driving belt, and a slide connecting it to the upper shaft; d) three bearings which are arranged at the lower end of each spindle, as well as at the upper end of the spindle, wherein each bearing is supported by shoes. a) a steel stud attaching the lower roller to the lower shaft, which is coupled to the lower roller and connected to a driving belt which is provided with two bearings, one at each end; b) Two shoes resting over a support, the shoes holder; c) two endless spindles, each one including a toothed wheel, these being connected to each other by a driving belt, and a slide connecting it to the upper shaft; d) three bearings which are arranged at the lower end of each spindle, as well as at the upper end of the spindle, wherein each bearing is supported by shoes.
Use of a composition for controlling the resistivity of a display cell or a primer layer, sealing layer or tie layer for a display device wherein said display cell or layer has a resistivity in the range of 10 7 to 10 12 ohm cm, which composition is a one phase system and comprises no less than 1% by weight of a polar oligomeric or polymeric material having a glass transition temperature below 100 °C and more than 10% by weight of a multi-functional monomer or oligomer, and the resulting display cell or layer has an average crosslinking density of below 1 crosslink point per 1.33 x 10 -25 kg (80 Dalton) molecular weight.
An in vitro method for determining the prognosis of the survival time of a patient suffering from a cancer comprising the steps consisting of i) determining the expression level of the couple DNMT3A/ISGF3γ in a sample from said patient, ii) comparing said expression level with a predetermined reference value and iii) providing a good prognosis when the expression level is lower than the predetermined reference value and a poor prognosis when the expression level is higher than the predetermined reference value.
A method for capturing a picture with a mobile device, the method comprising: sensing an image using a camera; displaying a capturing button on a display unit in a camera mode; activating at least one first specific function when a first touch input is received on the display unit, the first touch input starting at a point spaced from the capturing button and moving to the capturing button; and controlling the at least one first specific function according toa second touch input received consecutive to the first touch input, and the first specific function is related to the camera mode; preventing the camera from capturing the image when the second touch input is received on the displayed capturing button; and capturing the sensed image when the second touch input is released, wherein the activated at least one first specific function is determined whether the first touch input is performed from an upper end of the capturing button or from a lower end of the capturing button; and wherein the first specific function comprises at least one of a zoom function, a brightness control function, and a menu selection function in a capturing mode. sensing an image using a camera; displaying a capturing button on a display unit in a camera mode; activating at least one first specific function when a first touch input is received on the display unit, the first touch input starting at a point spaced from the capturing button and moving to the capturing button; and controlling the at least one first specific function according toa second touch input received consecutive to the first touch input, and the first specific function is related to the camera mode;
A pump assembly for dispensing a fluid from a fluid container, the pump assembly comprising an upper sleeve and a lower sleeve, slidingly engaged together and a pump having an inlet end, an outlet end and a pump chamber, the pump being retained within the sleeves with the inlet end located at an upper end of the upper sleeve and the outlet end located at a lower end of the lower sleeve, whereby movement of the lower sleeve towards the upper sleeve from an extended position to a compressed position causes the pump chamber to reduce in volume, wherein: - the outlet end of the pump has a shoulder between a first diameter portion and an outlet nozzle, the outlet nozzle extending downwardly from the shoulder and having a second diameter smaller than the first diameter portion; - the lower end of the lower sleeve comprises a shield for narrowing a spray angle of fluid exiting the outlet end of the pump, the shield extending from a lowermost rim upwards and inwards to terminate at an orifice, the orifice being larger than the second diameter but smaller than the first diameter portion and the shield forming a domed continuous surface that does not have any openings through which liquid or droplets might penetrate, whereby the shoulder supports against a lip of the orifice and the outlet nozzle extends through the orifice to terminate at a dispersion location within the shield at a distance L from the orifice, and wherein the domed continuous surface has a height of between 5 mm and 20 mm between the rim and the orifice. - the outlet end of the pump has a shoulder between a first diameter portion and an outlet nozzle, the outlet nozzle extending downwardly from the shoulder and having a second diameter smaller than the first diameter portion; - the lower end of the lower sleeve comprises a shield for narrowing a spray angle of fluid exiting the outlet end of the pump, the shield extending from a lowermost rim upwards and inwards to terminate at an orifice, the orifice being larger than the second diameter but smaller than the first diameter portion and the shield forming a domed continuous surface that does not have any openings through which liquid or droplets might penetrate, whereby the shoulder supports against a lip of the orifice and the outlet nozzle extends through the orifice to terminate at a dispersion location within the shield at a distance L from the orifice, and wherein the domed continuous surface has a height of between 5 mm and 20 mm between the rim and the orifice.
A method for performing an inter-radio access technology, Inter-RAT, handover procedure, the method comprising: establishing a packet-switched, PS, service between a wireless communication device and a first radio access technology, RAT, system; receiving, at the wireless communication device, a network initiated handover command message from the first RAT system, wherein the network initiated handover command message includes circuit-switched radio access bearer, CS RAB, configuration information for a second RAT system but does not include single radio voice call continuity, SRVCC, related information; determining, at the wireless communication device, that the network initiated handover command message does not include a "RAB info to replace" information element; determining, at the wireless communication device, based on the presence of CS RAB configuration information, that an SRVCC handover procedure should be performed; and performing, at the wireless communication device, the SRVCC handover procedure from the first RAT system to the second RAT system by switching transfer of data from a PS radio access bearer of the PS service in the first RAT system to a CS RAB in the second RAT system, wherein the CS RAB is included in the CS RAB configuration information; wherein the first RAT system is a long term evolution, LTE, system, the second RAT system is a universal terrestrial radio access network, UTRAN, system, and the PS radio access bearer is an evolved packet system, EPS, bearer. establishing a packet-switched, PS, service between a wireless communication device and a first radio access technology, RAT, system; receiving, at the wireless communication device, a network initiated handover command message from the first RAT system, wherein the network initiated handover command message includes circuit-switched radio access bearer, CS RAB, configuration information for a second RAT system but does not include single radio voice call continuity, SRVCC, related information; determining, at the wireless communication device, that the network initiated handover command message does not include a "RAB info to replace" information element; determining, at the wireless communication device, based on the presence of CS RAB configuration information, that an SRVCC handover procedure should be performed; and performing, at the wireless communication device, the SRVCC handover procedure from the first RAT system to the second RAT system by switching transfer of data from a PS radio access bearer of the PS service in the first RAT system to a CS RAB in the second RAT system, wherein the CS RAB is included in the CS RAB configuration information; wherein the first RAT system is a long term evolution, LTE, system, the second RAT system is a universal terrestrial radio access network, UTRAN, system, and the PS radio access bearer is an evolved packet system, EPS, bearer.
An absorbent article comprising: a liquid permeable topsheet; a liquid impermeable backsheet; and an absorbent core positioned at least partially intermediate the liquid permeable topsheet and the liquid impermeable backsheet; wherein the liquid permeable topsheet comprises a first flow control material, wherein the first flow control material forms an at least mostly enclosed perimeter over at least a portion of the absorbent core, and wherein the first flow control material extends less than 0.2mm outwardly from the liquid permeable topsheet, measured according to the Flow Control Material Outward Extension Method herein, and penetrates a portion of the liquid permeable topsheet, wherein the absorbent article comprises a second flow control material forming a second at least mostly enclosed perimeter over at least a portion of the absorbent core and wherein the second at least mostly enclosed perimeter is positioned within the at least mostly enclosed perimeter. a liquid permeable topsheet; a liquid impermeable backsheet; and an absorbent core positioned at least partially intermediate the liquid permeable topsheet and the liquid impermeable backsheet; wherein the liquid permeable topsheet comprises a first flow control material, wherein the first flow control material forms an at least mostly enclosed perimeter over at least a portion of the absorbent core, and wherein the first flow control material extends less than 0.2mm outwardly from the liquid permeable topsheet, measured according to the Flow Control Material Outward Extension Method herein, and penetrates a portion of the liquid permeable topsheet, wherein the absorbent article comprises a second flow control material forming a second at least mostly enclosed perimeter over at least a portion of the absorbent core and wherein the second at least mostly enclosed perimeter is positioned within the at least mostly enclosed perimeter.
A method of manufacturing a thermoformable shape-memory device, to be applied on the human body and to be used in a use temperature range, method comprising the steps of: forming a first layer (11-15, 16a, 16b, 17) of a thermoformable material that is inelastically deformable in a range of thermoforming temperatures higher than the use temperature range and comprised between 50 and 100°C, forming a second layer of a viscoelastic material that is elastically deformable in a temperature range including the thermoforming temperature range and the use temperature range, wherein the thermoformable material is, in the use temperature range, elastically deformable and rigid than the viscoelastic material, the thermoformable material being less rigid than the viscoelastic material in the thermoforming temperature range, and joining the first layer to the second layer over a contact surface between the first layer and the second layer, by chemical bonding or mechanical bonds (21-24, 24, 27) distributed over the contact surface, wherein - the first layer which is more rigid than the viscoelastic material in the use temperature range, defines the shape of use of the device in the use temperature range, and - the second layer defines an original shape of the device and provides a shape-memory function of the device in the thermoforming temperature range. forming a first layer (11-15, 16a, 16b, 17) of a thermoformable material that is inelastically deformable in a range of thermoforming temperatures higher than the use temperature range and comprised between 50 and 100°C, forming a second layer of a viscoelastic material that is elastically deformable in a temperature range including the thermoforming temperature range and the use temperature range, wherein the thermoformable material is, in the use temperature range, elastically deformable and rigid than the viscoelastic material, the thermoformable material being less rigid than the viscoelastic material in the thermoforming temperature range, and joining the first layer to the second layer over a contact surface between the first layer and the second layer, by chemical bonding or mechanical bonds (21-24, 24, 27) distributed over the contact surface, - the first layer which is more rigid than the viscoelastic material in the use temperature range, defines the shape of use of the device in the use temperature range, and - the second layer defines an original shape of the device and provides a shape-memory function of the device in the thermoforming temperature range.