mhurhangee/ep-ind-claims huggingface dataset:
A sliding-type apparatus for absorbing front shock energy for a railway vehicle, comprising: a driver panel provided on a front surface of a driver's cab in a front part of the railway vehicle so as to be movable backwards; a protective shell connected to the driver panel, so that, when the driver panel is moved backwards, the driver panel is inserted into the protective shell; a front shock absorber provided on a front surface of the driver panel to absorb the shock energy; and a driver panel shock absorber provided at a position towards which the driver panel is moved backwards, thus absorbing the shock energy using backward movement of the driver panel; wherein the sliding-type apparatus comprises a bottom shock absorber provided under a lower surface of the driver panel to absorb the shock energy; characterized in that edge guide grooves (130a, 130c) are formed in respective opposite edges of the driver panel, and edge guide members corresponding to the respective edge guide grooves (130a, 130c) are provided in the protective shell, further wherein an H-beam guide slot is formed in the driver panel, and an H-beam member is provided in the protective shell and is slideably inserted into the H-beam guide slot. a driver panel provided on a front surface of a driver's cab in a front part of the railway vehicle so as to be movable backwards; a protective shell connected to the driver panel, so that, when the driver panel is moved backwards, the driver panel is inserted into the protective shell; a front shock absorber provided on a front surface of the driver panel to absorb the shock energy; and a driver panel shock absorber provided at a position towards which the driver panel is moved backwards, thus absorbing the shock energy using backward movement of the driver panel; wherein the sliding-type apparatus comprises a bottom shock absorber provided under a lower surface of the driver panel to absorb the shock energy; characterized in that edge guide grooves (130a, 130c) are formed in respective opposite edges of the driver panel, and edge guide members corresponding to the respective edge guide grooves (130a, 130c) are provided in the protective shell, further wherein an H-beam guide slot is formed in the driver panel, and an H-beam member is provided in the protective shell and is slideably inserted into the H-beam guide slot.
A displacement control valve comprising: a valve housing formed with a discharge port, a suction port, and a control port; a valve element constituting a main valve that contacts and separates from a main valve seat, for opening and closing communication between the discharge port and the control port by driving force of a solenoid; a pressure-sensitive valve that opens and closes according to ambient pressure; and a pressure-sensitive valve member (52, 152) extending from the valve element to a pressure-sensitive chamber, and constituting the pressure-sensitive valve together with a pressure-sensitive element, the valve element and the pressure-sensitive valve member (52, 152) being formed with an intermediate communicating passage, the intermediate communicating passage allowing communication between the control port and the suction port by opening and closing of the pressure-sensitive valve, wherein the pressure-sensitive valve member (52, 152) is formed with a through hole communicating with the intermediate communicating passage, the displacement control valve is characterized in that the pressure-sensitive valve member (52, 152) is provided with a sliding member (90, 190) that slides relatively to the pressure-sensitive valve member (52, 152) by fluid flow produced by opening of the main valve, for opening and closing the through hole. a valve housing formed with a discharge port, a suction port, and a control port; a valve element constituting a main valve that contacts and separates from a main valve seat, for opening and closing communication between the discharge port and the control port by driving force of a solenoid; a pressure-sensitive valve that opens and closes according to ambient pressure; and a pressure-sensitive valve member (52, 152) extending from the valve element to a pressure-sensitive chamber, and constituting the pressure-sensitive valve together with a pressure-sensitive element, the valve element and the pressure-sensitive valve member (52, 152) being formed with an intermediate communicating passage, the intermediate communicating passage allowing communication between the control port and the suction port by opening and closing of the pressure-sensitive valve, wherein the pressure-sensitive valve member (52, 152) is formed with a through hole communicating with the intermediate communicating passage, the displacement control valve is characterized in that the pressure-sensitive valve member (52, 152) is provided with a sliding member (90, 190) that slides relatively to the pressure-sensitive valve member (52, 152) by fluid flow produced by opening of the main valve, for opening and closing the through hole.
A device for monitoring an extracorporeal blood treatment apparatus with an extracorporeal blood circuit, which comprises an arterial blood line with an arterial patient connection and a venous blood line with a venous patient connection, and with a dialysing fluid system, wherein a centrifugal pump for conveying blood in the extracorporeal blood circuit is disposed in the arterial or venous blood line of the extracorporeal blood circuit, wherein the monitoring device comprises: means for measuring flow rate Q of the blood conveyed by the centrifugal pump in the extracorporeal blood circuit, and a control and computing unit, which is constituted such that, in the event of a change in the measured flow rate of more than a predetermined amount, it is concluded that there is a malfunction in the extracorporeal blood circuit. means for measuring flow rate Q of the blood conveyed by the centrifugal pump in the extracorporeal blood circuit, and a control and computing unit, which is constituted such that, in the event of a change in the measured flow rate of more than a predetermined amount, it is concluded that there is a malfunction in the extracorporeal blood circuit.
Filter unit, especially serving as a portable service unit for hydraulic applications, at least consisting of a motor pump unit, which is connected with an outlet in the main flow to a filter element and with its other outlet in the secondary flow to a device for particle measurement in the fluid, said device comprising a particle sensor, a fluid pipe of pre-definable length being provided as a calming section as part of the device for particle measurement on the inflow side of the particle sensor such that gases conveyed in the fluid are redissolved in the fluid, characterised in that the fluid pipe of pre-definable length, assembled to form at least one winding, is received in a housing part of the unit, in that the respective winding is formed by a coil in the housing part, in that two coils are provided in the housing part, said coils being separated in a sealing manner, apart from a shared fluid connection point, by a housing wall, and in that the flow passes successively through the two coils.
A pharmaceutical delivery device comprising: (a) a cartridge containing a fluid, at least part of said cartridge being lined with a layer, said layer including: (i) a light pipe section which acts as a light pipe (124, 402, 502) having an input location; and (ii) a light diffusing section (126, 462, 562) optically coupled to said light pipe (124, 402, 502); and (b) a light source optically coupled to said cartridge at said input location to said light pipe (124, 402, 502), such that at least some light from said light source entering at said input location is diffused at said light diffusing section (126, 462, 562), wherein said layer is configured to diffuse light having a wavelength selected according to at least one visual perceptive property of said fluid. (a) a cartridge containing a fluid, at least part of said cartridge being lined with a layer, said layer including: (i) a light pipe section which acts as a light pipe (124, 402, 502) having an input location; and (ii) a light diffusing section (126, 462, 562) optically coupled to said light pipe (124, 402, 502); and (i) a light pipe section which acts as a light pipe (124, 402, 502) having an input location; and (ii) a light diffusing section (126, 462, 562) optically coupled to said light pipe (124, 402, 502); and (b) a light source optically coupled to said cartridge at said input location to said light pipe (124, 402, 502), such that at least some light from said light source entering at said input location is diffused at said light diffusing section (126, 462, 562),
A method for calibrating a micro-electro-mechanical system (MEMS) vibrating structure gyroscope, the method comprising: obtaining an indication of a position of at least one proof mass with respect to at least one drive electrode; and applying an electrostatic force to the at least one proof mass as a function of the indication, the electrostatic force configured to position the at least one proof mass in a first position with respect to the at least one drive electrode, characterized by the electrostatic force being configured to align the position along the sense axis of at least one comb of the at least one proof mass with the position along the sense axis of at least one comb of the at least one drive electrode. obtaining an indication of a position of at least one proof mass with respect to at least one drive electrode; and applying an electrostatic force to the at least one proof mass as a function of the indication, the electrostatic force configured to position the at least one proof mass in a first position with respect to the at least one drive electrode, characterized by the electrostatic force being configured to align the position along the sense axis of at least one comb of the at least one proof mass with the position along the sense axis of at least one comb of the at least one drive electrode.
A fastening device for fastening a substructure for solar modules and solar collectors on a pitched roof, comprising a fastening element (1, 101) for mounting the device on the purlin or the rafter of a roof substructure for tiled or corrugated sheet roofs, wherein a vertical profile and a mounting bracket (11, 111) connectable with the fastening element (1, 101) are provided, wherein the uppermost portion of the mounting bracket (11, 111) functions as a fastening arm (19, 119) for the vertical profile, to be arranged on the pitched roof in the line of slope, for the substructure, wherein the fastening arm (19, 119) is formed on the mounting bracket (11, 111) as a forked split end and comprises two fastening arm portions (19', 19", 119', 119") for tool-free insertion or pushing in of an arm of the vertical profile, wherein, by screwing in a screw (29, 129) with self-tapping thread, a definitive connection is producable between the mounting bracket (11, 111) and the vertical profile, wherein the forked end is formed by a slot (21, 121) in the fastening arm and the fastening arm (19, 119) is divided into two fastening arm portions (19', 19"; 119', 119") extending in parallel, such that the vertical profile is inserted into the slot (21, 121) and held provisionally in place.
A method of operating a wavelength tuning laser comprising - emitting electromagnetic radiation in a laser cavity in which a laser gain medium and an optical wavelength scanning filter arrangement (1, 1') are arranged, wherein the laser gain medium causes a self-frequency downshift in the optical spectrum of the intra-cavity laser light, - scanning the optical wavelength scanning filter arrangement in the positive wavelength sweep direction at a tuning speed that is greater than 100 nm per second, facilitated in part by the combination of the self-frequency downshift and the sweep direction of the optical wavelength scanning filter arrangement (1, 1'). - emitting electromagnetic radiation in a laser cavity in which a laser gain medium and an optical wavelength scanning filter arrangement (1, 1') are arranged, wherein the laser gain medium causes a self-frequency downshift in the optical spectrum of the intra-cavity laser light, - scanning the optical wavelength scanning filter arrangement in the positive wavelength sweep direction at a tuning speed that is greater than 100 nm per second, facilitated in part by the combination of the self-frequency downshift and the sweep direction of the optical wavelength scanning filter arrangement (1, 1').
A method comprising: receiving, by a participant of a receiver distributed ledger technology network, a multi-signature certification message comprising digital signatures respectively signed by validator participants of a furnisher DLT network based on private keys for the validator participants, the digital signatures indicative of certifications that-the-token data is locked on a furnisher blockchain; verify that the digital signatures were signed by the validator participants of the furnisher DLT network by: accessing a plurality of public keys that correspond to the private keys for the validator participants of the furnisher DLT network; and verifying that each of the validator participants of the furnisher DLT network respectively signed digital signatures based on the public keys; appending, to a receiver blockchain based on a receiver DLT, in response to determination that the digital signatures were signed by the validator participants of the furnisher DLT network, a datablock comprising the token data. receiving, by a participant of a receiver distributed ledger technology network, a multi-signature certification message comprising digital signatures respectively signed by validator participants of a furnisher DLT network based on private keys for the validator participants, the digital signatures indicative of certifications that-the-token data is locked on a furnisher blockchain; verify that the digital signatures were signed by the validator participants of the furnisher DLT network by: accessing a plurality of public keys that correspond to the private keys for the validator participants of the furnisher DLT network; and verifying that each of the validator participants of the furnisher DLT network respectively signed digital signatures based on the public keys; accessing a plurality of public keys that correspond to the private keys for the validator participants of the furnisher DLT network; and verifying that each of the validator participants of the furnisher DLT network respectively signed digital signatures based on the public keys; appending, to a receiver blockchain based on a receiver DLT, in response to determination that the digital signatures were signed by the validator participants of the furnisher DLT network, a datablock comprising the token data.
Roller assembly with two roller shafts mounted in a housing, wherein the roller shafts are preferably mounted parallel to one another, wherein the roller shafts each carry at least one roller ring in their axial end region, wherein a seal assembly, by which the axial end region of the roller shafts together with roller rings can be sealed relative to the interior of the housing, is secured at or in the housing, wherein the sealing assembly comprises: - a seal support plate, which is secured at or in the housing or is part of the housing, - two respective slide rings (8, 9) for each roller shaft, the slide rings being arranged at the roller shaft, - a respective double lip seal for each roller shaft, the double lip seal having two sealing lips (11, 12) and being arranged at the seal support plate, wherein the sealing lips (11, 12) each bear against a respective slide ring (8, 9), and - a respective support ring for each roller shaft, the support ring being arranged in the radially inwardly disposed region of the double lip seal and radially supporting this, characterised in that rotation prevention means (14, 15), by which rotation of the double lip seal relative to the seal support plate is prevented, is arranged, wherein the rotation prevention means (14, 15) comprises at least one radial projection which is arranged at the seal support plate and engages in a corresponding recess in the double lip seal or wherein the rotation prevention means (14, 15) comprises at least one radial projection which is arranged at the double lip seal and engages in a corresponding recess in the seal support plate, wherein the projection and the recess are formed to be congruent with one another and wherein the projection is configured as a cylinder or pin. - a seal support plate, which is secured at or in the housing or is part of the housing, - two respective slide rings (8, 9) for each roller shaft, the slide rings being arranged at the roller shaft, - a respective double lip seal for each roller shaft, the double lip seal having two sealing lips (11, 12) and being arranged at the seal support plate, wherein the sealing lips (11, 12) each bear against a respective slide ring (8, 9), and - a respective support ring for each roller shaft, the support ring being arranged in the radially inwardly disposed region of the double lip seal and radially supporting this,
A method, comprising: receiving, by a user equipment, UE, a configuration to monitor more than one physical downlink control channel, PDCCH, used for scheduling more than one physical downlink shared channel, PDSCH, or more than one physical uplink shared channel, PUSCH, from one physical cell within one monitoring occasion, wherein the more than one PDSCH or the more than one PUSCH is associated with one data channel type and one radio network temporary identifier, RNTI, type; monitoring, by the UE, the more than one PDCCH based on the configuration, wherein each of the more than one PDCCH is received from a separate transmit/receive point, TRP; and receiving, by the UE, the more than one PDSCH or transmitting the more than one PUSCH simultaneously; wherein the method is characterized by: generating, by the UE, an association between the more than one PDCCH and more than one control resource set, CORESET; and monitoring, by the UE, a first PDCCH from a first CORESET group and a second PDCCH from a second CORESET group based on the association between the more than one PDCCH and the more than one CORESET; wherein a CORESET group includes at least one CORESET from a set of CORESETs; wherein generating the association between the more than one PDCCH and the more than one CORESET further comprises: receiving, by the UE, more than one CORESET configuration each including at least one PDCCH identity; wherein at least two CORESET configurations include different PDCCH identities. receiving, by a user equipment, UE, a configuration to monitor more than one physical downlink control channel, PDCCH, used for scheduling more than one physical downlink shared channel, PDSCH, or more than one physical uplink shared channel, PUSCH, from one physical cell within one monitoring occasion, wherein the more than one PDSCH or the more than one PUSCH is associated with one data channel type and one radio network temporary identifier, RNTI, type; monitoring, by the UE, the more than one PDCCH based on the configuration, wherein each of the more than one PDCCH is received from a separate transmit/receive point, TRP; and receiving, by the UE, the more than one PDSCH or transmitting the more than one PUSCH simultaneously; generating, by the UE, an association between the more than one PDCCH and more than one control resource set, CORESET; and monitoring, by the UE, a first PDCCH from a first CORESET group and a second PDCCH from a second CORESET group based on the association between the more than one PDCCH and the more than one CORESET; wherein a CORESET group includes at least one CORESET from a set of CORESETs; wherein generating the association between the more than one PDCCH and the more than one CORESET further comprises: receiving, by the UE, more than one CORESET configuration each including at least one PDCCH identity; wherein at least two CORESET configurations include different PDCCH identities. receiving, by the UE, more than one CORESET configuration each including at least one PDCCH identity; wherein at least two CORESET configurations include different PDCCH identities.
Apparatus for pulling a single crystal of semiconductor material from a melt contained in a crucible, having a device for rotating a pulling shaft and having a device for rotating a crucible shaft, characterized by a double worm gear between a drive and the pulling shaft and by a further double worm gear between a further drive and the crucible shaft.
A knee/elbow joint assist device comprising: a thigh band suitable to be wound around a thigh portion is mounted on one end of a first arm and one end of a second arm; a lower thigh band suitable to be wound around a lower thigh portion is mounted on one end of a third arm and one end of a fourth arm; a first turning member (3b,70b) for turnably connecting other end of the second arm and one end of the fourth arm; and a second turning member (3a, 70a) for turnably connecting other end of the first arm and one end of the third arm, in which the second arm and the first arm compose one arm, and the fourth arm and the third arm compose other arm, wherein one connection member and other connection member are suitable to be placed on the knee/elbow joint, the one connection member turnably connects one end to other end portion of the second arm, and turnably connects other end to the other end portion of the first arm, the other connection member turnably connects one end to one end portion of the fourth arm, and turnably connects other end to one end portion of the third arm, and a connection-restraining member is configured to restrain the one connection member and the other connection member, thereby interlocking the one arm and the other arm to each other. a thigh band suitable to be wound around a thigh portion is mounted on one end of a first arm and one end of a second arm; a lower thigh band suitable to be wound around a lower thigh portion is mounted on one end of a third arm and one end of a fourth arm; a first turning member (3b,70b) for turnably connecting other end of the second arm and one end of the fourth arm; and a second turning member (3a, 70a) for turnably connecting other end of the first arm and one end of the third arm, in which the second arm and the first arm compose one arm, and the fourth arm and the third arm compose other arm, wherein one connection member and other connection member are suitable to be placed on the knee/elbow joint, the one connection member turnably connects one end to other end portion of the second arm, and turnably connects other end to the other end portion of the first arm, the other connection member turnably connects one end to one end portion of the fourth arm, and turnably connects other end to one end portion of the third arm, and a connection-restraining member is configured to restrain the one connection member and the other connection member, thereby interlocking the one arm and the other arm to each other.
Process for the preparation of crystalline form I of agomelatine which comprises freeze-drying a solution of agomelatine in an organic solvent selected from C1-C6 alcohols.