mhurhangee/ep-ind-claims huggingface dataset:
Drive device for a rotor of a revolving door, comprising: - a drive apparatus; - a drive belt; - the drive apparatus is coupled via the drive belt in terms of movement to a belt pulley being connected to the rotor for conjoint rotation; characterised by the following features: - the drive device further comprises a clamping apparatus (30, 40) for clamping and redirecting the drive belt; - the clamping apparatus (30, 40) comprises an input redirection roller and an output redirection roller; - the drive belt extends over the drive apparatus and the clamping apparatus (30, 40); - the clamping apparatus (30, 40) and the drive apparatus are supported so as to be variable in terms of spacing relative to each other in such a manner that an expansion of the drive belt in the event of acceleration or braking of the rotor is compensated for by the spacing change of the clamping apparatus (30, 40) with respect to the drive apparatus; - the drive belt comprises a toothed side and a non-toothed side (20"); - the drive apparatus comprises a toothed drive wheel which is in engagement with the toothed side of the drive belt; and - the non-toothed side (20") is in abutment with the clamping apparatus (30, 40) and with a non-toothed belt pulley which is connected to the rotor for conjoint rotation. - a drive apparatus; - a drive belt; - the drive apparatus is coupled via the drive belt in terms of movement to a belt pulley being connected to the rotor for conjoint rotation; characterised by the following features: - the drive device further comprises a clamping apparatus (30, 40) for clamping and redirecting the drive belt; - the clamping apparatus (30, 40) comprises an input redirection roller and an output redirection roller; - the drive belt extends over the drive apparatus and the clamping apparatus (30, 40); - the clamping apparatus (30, 40) and the drive apparatus are supported so as to be variable in terms of spacing relative to each other in such a manner that an expansion of the drive belt in the event of acceleration or braking of the rotor is compensated for by the spacing change of the clamping apparatus (30, 40) with respect to the drive apparatus; - the drive belt comprises a toothed side and a non-toothed side (20"); - the drive apparatus comprises a toothed drive wheel which is in engagement with the toothed side of the drive belt; and - the non-toothed side (20") is in abutment with the clamping apparatus (30, 40) and with a non-toothed belt pulley which is connected to the rotor for conjoint rotation.
A computer-implemented method of designing a plybook for a composite component, comprising: defining a component volume corresponding to the composite component to be manufactured; defining a plurality of successive plies of composite material to fill the component volume; simulating at least some of the plurality of successive plies of composite material based on an estimate of variable cured ply thickness, wherein the variable cured ply thickness is estimated by: simulating at least a portion of a respective ply of composite material; and estimating a cured ply thickness for the portion of composite material at least partly based on local conditions of the portion; and defining a plybook based on the plurality of simulated plies. defining a component volume corresponding to the composite component to be manufactured; defining a plurality of successive plies of composite material to fill the component volume; simulating at least some of the plurality of successive plies of composite material based on an estimate of variable cured ply thickness, wherein the variable cured ply thickness is estimated by: simulating at least a portion of a respective ply of composite material; and estimating a cured ply thickness for the portion of composite material at least partly based on local conditions of the portion; and simulating at least a portion of a respective ply of composite material; and estimating a cured ply thickness for the portion of composite material at least partly based on local conditions of the portion; and defining a plybook based on the plurality of simulated plies.
A method for forming a lenticular microprotrusion array comprising: providing a substantially planar microprotrusion array comprising a plurality of microprotrusions, each microprotrusion comprising a frustoconical protrusion with at least one scraping edge attached to a planar substrate; providing a fixture having a top block and a bottom block, wherein the fixture is adapted to hold the planar microprotrusion array, and the top block further comprises a lenticular forming mandrel adapted to deform the planar mictroprotrusion array; removably affixing the planar microprotrusion array into the bottom block with the plurality of microprotrusions facing away from the top block; heating the microprotrusion array to a temperature such that the microprotrusion array may be plastically deformed; lowering the forming mandrel onto the microprotrusion array; and cooling the microprotrusion array to such a temperature that the geometry of the forming mandrel is substantially maintained. providing a substantially planar microprotrusion array comprising a plurality of microprotrusions, each microprotrusion comprising a frustoconical protrusion with at least one scraping edge attached to a planar substrate; providing a fixture having a top block and a bottom block, wherein the fixture is adapted to hold the planar microprotrusion array, and the top block further comprises a lenticular forming mandrel adapted to deform the planar mictroprotrusion array; removably affixing the planar microprotrusion array into the bottom block with the plurality of microprotrusions facing away from the top block; heating the microprotrusion array to a temperature such that the microprotrusion array may be plastically deformed; lowering the forming mandrel onto the microprotrusion array; and cooling the microprotrusion array to such a temperature that the geometry of the forming mandrel is substantially maintained.
A laundry machine having a drying function, the laundry machine comprising: a heater and a fan to generate hot air; a tub (100, 120) to hold water therein during a washing cycle, the tub (100, 120) having a hot air inlet to allow in the hot air and a hot air outlet to discharge the hot air; a drum (300, 320, 340) rotatably placed in the tub (100, 120); a duct to provide a passage for the hot air to flow to the tub (100, 120); and a filter to filter the hot air, the filter placed at the hot air outlet of the tub (100, 120); a water supply part (121 a) of the hot air outlet to supply cleaning water to the filter from out of the tub (100, 120); and characterized by a collision surface configured to be struck by the cleaning water supplied for cleaning the filter and to spread the water over the filter. a heater and a fan to generate hot air; a tub (100, 120) to hold water therein during a washing cycle, the tub (100, 120) having a hot air inlet to allow in the hot air and a hot air outlet to discharge the hot air; a drum (300, 320, 340) rotatably placed in the tub (100, 120); a duct to provide a passage for the hot air to flow to the tub (100, 120); and a filter to filter the hot air, the filter placed at the hot air outlet of the tub (100, 120); a water supply part (121 a) of the hot air outlet to supply cleaning water to the filter from out of the tub (100, 120); and characterized by a collision surface configured to be struck by the cleaning water supplied for cleaning the filter and to spread the water over the filter.
An automated analyzer, comprising: a first temperature control unit including a first temperature adjusting mechanism which includes a first heat exchange portion; an air suction duct adapted to supply air sucked from an air suction port to the first heat exchange portion; an air discharge duct formed separated from the air suction duct to discharge air from the first heat exchange portion toward an air discharge port; and a control device adapted to control the first temperature adjusting mechanism so that the first temperature control unit is set to a first target temperature; characterized in that the automated analyzer further comprises a second temperature control unit including a second temperature adjusting mechanism which includes a second heat exchange portion; the air suction duct is further adapted to supply air sucked from the air suction port to the second heat exchange portion; the air discharge duct is further adapted to discharge air from the second heat exchange portion toward the air discharge port; the control device is further adapted to control the second temperature adjusting mechanism so that the second temperature control unit is set to a second target temperature higher than the first target temperature, and the first temperature control unit is disposed at a position closer to the air suction port than the second temperature control unit. a first temperature control unit including a first temperature adjusting mechanism which includes a first heat exchange portion; an air suction duct adapted to supply air sucked from an air suction port to the first heat exchange portion; an air discharge duct formed separated from the air suction duct to discharge air from the first heat exchange portion toward an air discharge port; and a control device adapted to control the first temperature adjusting mechanism so that the first temperature control unit is set to a first target temperature; characterized in that the automated analyzer further comprises a second temperature control unit including a second temperature adjusting mechanism which includes a second heat exchange portion; the air suction duct is further adapted to supply air sucked from the air suction port to the second heat exchange portion; the air discharge duct is further adapted to discharge air from the second heat exchange portion toward the air discharge port; the control device is further adapted to control the second temperature adjusting mechanism so that the second temperature control unit is set to a second target temperature higher than the first target temperature, and the first temperature control unit is disposed at a position closer to the air suction port than the second temperature control unit.
A device for supporting detection of return of spontaneous circulation during cardiopulmonary resuscitation, the device comprising - a PPG input configured to obtain one or more photoplethysmography, PPG, signals of a patient; - a BP output configured to provide a BP control signal for controlling a BP sensor to start measuring blood pressure, BP, of the patient; - a BP input configured to obtain one or more BP measurements; and - a processing unit configured to analyze one or more predefined PPG signal properties of the one or more PPG signals (21, 22, 23) and to generate the BP control signal if one or more of the PPG signal properties fulfill a predefined condition, wherein the one or more PPG signal properties correspond to at least pulse rate, pulse strength, and duration of the pulse presence of the patient, and wherein the predefined condition comprises respective thresholds for pulse rate, pulse strength, and pulse presence duration, and wherein the predefined condition is for detecting return of a spontaneous pulse; wherein the processing unit is configured to assess a status of an indicator of cardiogenic output indicating return of spontaneous circulation based on a combination of the one or more PPG signals (21, 22, 23) with the BP measurements. - a PPG input configured to obtain one or more photoplethysmography, PPG, signals of a patient; - a BP output configured to provide a BP control signal for controlling a BP sensor to start measuring blood pressure, BP, of the patient; - a BP input configured to obtain one or more BP measurements; and - a processing unit configured to analyze one or more predefined PPG signal properties of the one or more PPG signals (21, 22, 23) and to generate the BP control signal if one or more of the PPG signal properties fulfill a predefined condition, wherein the one or more PPG signal properties correspond to at least pulse rate, pulse strength, and duration of the pulse presence of the patient, and wherein the predefined condition comprises respective thresholds for pulse rate, pulse strength, and pulse presence duration, and wherein the predefined condition is for detecting return of a spontaneous pulse; wherein the processing unit is configured to assess a status of an indicator of cardiogenic output indicating return of spontaneous circulation based on a combination of the one or more PPG signals (21, 22, 23) with the BP measurements. wherein the one or more PPG signal properties correspond to at least pulse rate, pulse strength, and duration of the pulse presence of the patient, and wherein the predefined condition comprises respective thresholds for pulse rate, pulse strength, and pulse presence duration, and wherein the predefined condition is for detecting return of a spontaneous pulse; wherein the processing unit is configured to assess a status of an indicator of cardiogenic output indicating return of spontaneous circulation based on a combination of the one or more PPG signals (21, 22, 23) with the BP measurements.
A method of predicting prognosis for a subject diagnosed with gastric cancer, the method comprising: a step of determining a degree of expression of RNA transcripts of GART, PTN, PCNA, GLI3, SMARCD3, SULT1A3, ILK, FUCA1, PKD1, TOP2A, ABL1, CKS2, FZD1, TIAL1, SGCD, PIGF, CCNB1, CSK, CRYAB, TPM1, RFC4, GUCY1B3, TYMS, FEN1, GNAl1, CSRP1, UNG, AXL, MAP1B, VCL, ITGA5, LIG1, HPRT1, GRB2, HMMR, MCM4, SRF, DMPK, ACP5, CD38, PRIM1, CCNF, GLRB, IFNAR2, HSPA2, CLN3, BUB1, CALM1, CDC2, ATF4 and RRM1 in a biological sample including cancer cells obtained from the subject; and a step of calculating a risk score and an RS percentage (RS (%)) of the biological sample based on the degree of expression of the RNA transcript determined in the above step and determining prognosis according to the RS (%). a step of determining a degree of expression of RNA transcripts of GART, PTN, PCNA, GLI3, SMARCD3, SULT1A3, ILK, FUCA1, PKD1, TOP2A, ABL1, CKS2, FZD1, TIAL1, SGCD, PIGF, CCNB1, CSK, CRYAB, TPM1, RFC4, GUCY1B3, TYMS, FEN1, GNAl1, CSRP1, UNG, AXL, MAP1B, VCL, ITGA5, LIG1, HPRT1, GRB2, HMMR, MCM4, SRF, DMPK, ACP5, CD38, PRIM1, CCNF, GLRB, IFNAR2, HSPA2, CLN3, BUB1, CALM1, CDC2, ATF4 and RRM1 in a biological sample including cancer cells obtained from the subject; and a step of calculating a risk score and an RS percentage (RS (%)) of the biological sample based on the degree of expression of the RNA transcript determined in the above step and determining prognosis according to the RS (%).
A sensor system comprising a lighting device (1, 3), which contains a semiconductor laser diode, and a detector device, wherein said lighting device emits laser radiation of a first wavelength (L11, L12) and laser radiation of a second wavelength different from the first (L21, L22) and illuminates an object, and said detector device detects electromagnetic radiation of said first and said second wavelength, characterized in that - said semiconductor laser diode comprises a first active region and a second active region, - said first and second active regions (11, 12) are contained in a semiconductor layer sequence of said semiconductor laser diode and are stacked one on top of the other, - said first active region emits laser radiation of said first wavelength (L11, L12) and said second active region emits laser radiation of said second wavelength (L21, L22) when said semiconductor laser diode is operating, wherein the object reflects a portion of the laser radiation emitted by the lighting device to the detector device where the reflected laser radiation is detected, and wherein the first (L11, L12) and the second wavelength (L21, L22) are in the infrared spectral region, and - each of said first and said second active regions (11, 12) has a quantum well structure and said quantum well structures differ in their layer thicknesses and/or in the dimension of quantization. - said semiconductor laser diode comprises a first active region and a second active region, - said first and second active regions (11, 12) are contained in a semiconductor layer sequence of said semiconductor laser diode and are stacked one on top of the other, - said first active region emits laser radiation of said first wavelength (L11, L12) and said second active region emits laser radiation of said second wavelength (L21, L22) when said semiconductor laser diode is operating, wherein the object reflects a portion of the laser radiation emitted by the lighting device to the detector device where the reflected laser radiation is detected, and wherein the first (L11, L12) and the second wavelength (L21, L22) are in the infrared spectral region, and - each of said first and said second active regions (11, 12) has a quantum well structure and said quantum well structures differ in their layer thicknesses and/or in the dimension of quantization.
A method comprising: at a first node (218, 310, 420) providing mobile services to a user equipment (110, 210, 410), LTE, over a first network, wherein the first network is an access network and the first node terminates a first interface towards an access and mobility management function (114, 214, 430), AMF: receiving a setup request from the LTE to be connected to a second network over the first network; sending a fully qualified domain name, FQDN, of the first node over the first interface to the AMF in response to the setup request; triggering (414, 540) the AMF to transmit a session establishment request to a session management function (116, 216, 450), SMF, wherein the session establishment request includes the FQDN of the first node, and in response to receiving the session establishment request, the SMF selects one or more second nodes in the second network collocated with the first node based at least in part on a topology match of the FQDN of the first node and one or more FQDNs of the one or more second nodes; and providing LTE access to the second network over the first network through the collocated first node and the one or more second nodes. receiving a setup request from the LTE to be connected to a second network over the first network; sending a fully qualified domain name, FQDN, of the first node over the first interface to the AMF in response to the setup request; triggering (414, 540) the AMF to transmit a session establishment request to a session management function (116, 216, 450), SMF, wherein the session establishment request includes the FQDN of the first node, and in response to receiving the session establishment request, the SMF selects one or more second nodes in the second network collocated with the first node based at least in part on a topology match of the FQDN of the first node and one or more FQDNs of the one or more second nodes; and providing LTE access to the second network over the first network through the collocated first node and the one or more second nodes.
A coaxial screw gear sleeve mechanism comprising: a first member and a second member each having an inner surface configured to face the inner surface of the other; a first post and a second post (111,112,511,621,721,810) each having a threaded exterior surface (113, 114,113A,114A,113B,114B,811) on a portion of the post; and a corresponding sleeve (120,130,520,620,720,820) for each post configured to surround the respective post and having: a threaded interior surface (122,132) on a portion of the sleeve configured to directly interface with the threaded exterior surface of the post (113, 114,113A,114A,113B,114B,811); and a helically geared exterior surface (124,134,134A,822) on a portion of the sleeve; and a drive mechanism having a surface configured to simultaneously interface with and drive the geared exterior surface of each of the sleeves, arranged such that selective operation of the drive mechanism causes a telescopic expansion of the first member with respect to the second member by a simultaneous telescopic axial expansion of the first sleeve and the second sleeve translating relative to the drive mechanism and the first post and the second post translating relative to the first sleeve and the second sleeve, and wherein the second member defines a pair of threaded sleeve openings (161, 162) in the inner surface each sized to rotatingly accommodate one of the sleeves therein, and the second member further defines a drive mechanism aperture sized to rotatingly contain the drive mechanism therein, and wherein the drive mechanism interfaces with the sleeves through respective apertures (157, 158) in the second member between the drive mechanism aperture and the sleeve openings. a first member and a second member each having an inner surface configured to face the inner surface of the other; a first post and a second post (111,112,511,621,721,810) each having a threaded exterior surface (113, 114,113A,114A,113B,114B,811) on a portion of the post; and a corresponding sleeve (120,130,520,620,720,820) for each post configured to surround the respective post and having: a threaded interior surface (122,132) on a portion of the sleeve configured to directly interface with the threaded exterior surface of the post (113, 114,113A,114A,113B,114B,811); and a helically geared exterior surface (124,134,134A,822) on a portion of the sleeve; and a threaded interior surface (122,132) on a portion of the sleeve configured to directly interface with the threaded exterior surface of the post (113, 114,113A,114A,113B,114B,811); and a helically geared exterior surface (124,134,134A,822) on a portion of the sleeve; and a drive mechanism having a surface configured to simultaneously interface with and drive the geared exterior surface of each of the sleeves,
Method in a vehicle with the passenger compartment camera arrangement and exterior camera arrangement, wherein, for displaying the passenger compartment of the vehicle and the exterior of the vehicle, at least one passenger compartment camera (13, 14, 28) and at least one exterior camera (11, 12, 15, 16, 17, 29) are provided for recording in each case one image stream, wherein the passenger compartment camera (13, 14, 28) captures at least part of the passenger compartment of the vehicle and the exterior camera (11, 12, 15, 16, 17, 29) captures at least part of the exterior of the vehicle, wherein the passenger compartment camera (13, 14, 28) and the exterior camera (11, 12, 15, 16, 17, 29) capture at least partial areas of the passenger compartment of the vehicle and of the exterior of the vehicle and transfer them to a display device, wherein the partial areas at least partially adjoin one another, wherein an image stream which is to be displayed by the display device is subjected to object analysis by means of an image stream analysis unit in such a way that the latter determines objects moving relative to the vehicle, in the passenger compartment of the vehicle and in the exterior of the vehicle, and acts on the display device in such a way that the moving objects in the display are indicated on the screen (18, 18', 31), that the image stream analysis unit determines a movement vector for each of the moving objects and acts on the display device in such a way that it displays the direction of movement in conjunction with the respective object on the screen (18, 18', 31), that partial areas can be selected both for the display of the passenger compartment of the vehicle and for the display of the exterior of the vehicle and can each be displayed from a common perspective on a common screen, and that a traffic situation-analysis device is provided which analyses the traffic situation and acts, in accordance with the determined traffic situation, on the passenger compartment camera arrangement or exterior camera arrangement or display device in terms of control technology in such a way that the display of the passenger compartment and the display of the exterior are effected in accordance with the traffic situation.