mhurhangee/ep-ind-claims huggingface dataset:
Device for plasma processing, comprising: - a processing chamber with: - at least two plasma processing zones (11a - 11c) with process gas flowing through them, - a gas inlet that is suitable for feeding the process gas into the at least two plasma processing zones (11a - 11c), and - a gas outlet that is suitable for discharging an exhaust gas from the processing chamber, characterized in that - the device further comprises a circulation unit with a circulation line and a circulation pump, wherein the circulation unit is suitable for feeding at least a portion of the exhaust gas into the gas inlet, - wherein the exhaust gas fed into the gas inlet is a mixture of gases that are discharged from at least two of the plasma processing zones (11a - 11c), - the gas inlet and the gas outlet have an identical design and - the device for plasma processing has a changeover unit that is suitable, in a first switching state, to supply the gas inlet with exhaust gas fed in through the circulation line and a fed-in gas differing from the exhaust gas, and to discharge the exhaust gas from the gas outlet, and, in a second switching state, to supply the gas outlet with exhaust gas fed in through the circulation line and the fed-in gas differing from the exhaust gas, and to discharge the exhaust gas from the gas inlet. - a processing chamber with: - at least two plasma processing zones (11a - 11c) with process gas flowing through them, - a gas inlet that is suitable for feeding the process gas into the at least two plasma processing zones (11a - 11c), and - a gas outlet that is suitable for discharging an exhaust gas from the processing chamber, - at least two plasma processing zones (11a - 11c) with process gas flowing through them, - a gas inlet that is suitable for feeding the process gas into the at least two plasma processing zones (11a - 11c), and - a gas outlet that is suitable for discharging an exhaust gas from the processing chamber, - the device further comprises a circulation unit with a circulation line and a circulation pump, wherein the circulation unit is suitable for feeding at least a portion of the exhaust gas into the gas inlet, - wherein the exhaust gas fed into the gas inlet is a mixture of gases that are discharged from at least two of the plasma processing zones (11a - 11c), - the gas inlet and the gas outlet have an identical design and - the device for plasma processing has a changeover unit that is suitable, in a first switching state, to supply the gas inlet with exhaust gas fed in through the circulation line and a fed-in gas differing from the exhaust gas, and to discharge the exhaust gas from the gas outlet, and, in a second switching state, to supply the gas outlet with exhaust gas fed in through the circulation line and the fed-in gas differing from the exhaust gas, and to discharge the exhaust gas from the gas inlet.
A supplemental device configured for attachment to an injection device including a dosage window covering a sleeve on which dose values are marked, the supplemental device comprising: a main body; an arrangement (53, 54, 55, 56) for supporting the main body of the supplemental device in a predetermined positional relationship with the injection device; a transparent protection window located at a surface of the main body that is configured to be aligned with a dosage window of the injection device when in use; a sensor arrangement (25, 25A) supported in the main body and having a sensor directed at the protection window; an illumination arrangement (29A-29D) comprising one or more sources of light, each of the one or more sources of light being directed at the protection window; and characterized in that it further comprises a light dispersing part (85, 86) located on a surface of the protection window and on an optical path between a first one of the one or more sources of light and a point on the dosage window at which reflection to the sensor would occur. a main body; an arrangement (53, 54, 55, 56) for supporting the main body of the supplemental device in a predetermined positional relationship with the injection device; a transparent protection window located at a surface of the main body that is configured to be aligned with a dosage window of the injection device when in use; a sensor arrangement (25, 25A) supported in the main body and having a sensor directed at the protection window; an illumination arrangement (29A-29D) comprising one or more sources of light, each of the one or more sources of light being directed at the protection window; and characterized in that it further comprises a light dispersing part (85, 86) located on a surface of the protection window and on an optical path between a first one of the one or more sources of light and a point on the dosage window at which reflection to the sensor would occur.
A screw-form dental implant; the implant is for implanting at an implantation site; the implant has at least one connection platform; the implant comprises a coronal portion, a medial portion and an apical portion; the coronal portion, the medial portion and the apical portion are continuous with one another; the medial portion is disposed between said coronal portion and said apical portion of the implant; the coronal portion defines a proximal end of the implant and the apical portion defines a distal end of the implant; said distal end of the implant features a contoured surface; said contoured surface has a head defined by the external surface of said apical portion of the implant; said apical portion of the implant is configured to have an external diameter that is smaller than the external diameter of said medial portion; said implant features a threading comprising a primary thread; said primary thread has an apical surface, a coronal surface and a lateral edge connecting them; the apical surface of the primary thread features at least two apical surface recesses; characterized in that said contoured surface is a continuous surface; said primary thread has at least two starts; a base portion of the contoured continuous surface of the distal end of the implant is defined by the apical surface of the primary thread, and in that the contoured continuous surface is configured to facilitate immediate placement, seating, centralizing and stabilization of implant with the implantation site by comprising the at least two apical surface recesses to account for an uneven implantation site surface.
Differential for a motor vehicle with - an input member and at least two output members, and - a positive-locking differential unit arranged between the input member and the output members, via which the drive power flow is transmitted from the input member to the output members, wherein a coupling device is provided between the input member and the output members, via which the output members and the input member can be decoupled from one another, characterized in that a braking device is provided at the differential, which exerts a braking force on the input member when the output members are decoupled from the input member. - an input member and at least two output members, and - a positive-locking differential unit arranged between the input member and the output members, via which the drive power flow is transmitted from the input member to the output members,
A ceiling-mounted air conditioning unit (4, 104, 204) having a structure where an indoor heat exchanger (42, 142, 242) comprising a fin-and-tube heat exchanger is placed on an outer peripheral side of a centrifugal blower (41, 141, 241) as seen in a plan view, wherein the indoor heat exchanger has a structure where plural heat transfer tubes (71, 72, 73) inside of which flows refrigerant are arranged in multiple stages in a vertical direction and in three rows in a flow direction of air blown out from the centrifugal blower, plural liquid refrigerant tubes connected to a refrigerant inlet of the indoor heat exchanger in a case where the indoor heat exchanger functions as an evaporator of the refrigerant during cooling are connected to heat transfer tubes in a first row that is the row on the most upwind side in the flow direction of the air, a plurality of second row-side gas refrigerant tubes that are connected to a refrigerant outlet of the indoor heat exchanger during cooling are connected to heat transfer tubes in a second row in the flow direction of the air, and a plurality of third row-side gas refrigerant tubes that are connected to a refrigerant outlet of the indoor heat exchanger during cooling are connected to heat transfer tubes in a third row that is the row on the most downwind side in the flow direction of the air, and characterised in that the indoor heat exchanger (42, 142, 242) has inter-row branching portions that cause the refrigerant that has been sent to the outlets of the heat transfer tubes in the first row during cooling to branch into the heat transfer tubes in the second row and the heat transfer tubes in the third row, the outlets of the heat transfer tubes in the second row in a case where the indoor heat exchanger functions as an evaporator of the refrigerant during cooling are connected to the second row-side gas refrigerant tubes, and the outlets of the heat transfer tubes in the third row in a case where the indoor heat exchanger functions as an evaporator of the refrigerant during cooling are connected to the third row-side gas refrigerant tubes.
An endless rubber track belt, comprising: an endless, elongate carcass including an outer surface, an inner surface, and at least one reinforcing layer; a plurality of tread lugs disposed on said outer surface; and, a plurality of drive lugs disposed on said inner surface, each said drive lug including oppositely disposed drive faces, an upper face between said drive faces, and oppositely disposed end faces; wherein the at least one reinforcing layer comprises longitudinal cables and a cord fabric material disposed adjacent the longitudinal cables, characterised in that the cord fabric material envelops the longitudinal cables and is butt spliced at the center line of the track. an endless, elongate carcass including an outer surface, an inner surface, and at least one reinforcing layer; a plurality of tread lugs disposed on said outer surface; and, a plurality of drive lugs disposed on said inner surface, each said drive lug including oppositely disposed drive faces, an upper face between said drive faces, and oppositely disposed end faces; wherein the at least one reinforcing layer comprises longitudinal cables and a cord fabric material disposed adjacent the longitudinal cables, characterised in that the cord fabric material envelops the longitudinal cables and is butt spliced at the center line of the track.
A method for realizing fast handover in enhanced uplink to be applied in a Time Division Synchronous Code Division Multiple Access system, comprising the following steps of: (a) when cell handover occurs for a User Equipment and a network side determines that the User Equipment can perform enhanced uplink service in a target cell, sending by the network side a handover command carrying information of random access resources of the target cell to the User Equipment; and (b) after the User Equipment completes the cell handover's process, if there are data available for transmission in buffer(s) corresponding to enhanced uplink radio bearer(s), initiating by the User Equipment an enhanced uplink random access according to the information of random access resources carried in the handover command to request scheduling resources from a base station Node B; wherein in said step (a), the information of random access resources comprises information of one or more random access physical channels and enhanced uplink random access synchronization code information. (a) when cell handover occurs for a User Equipment and a network side determines that the User Equipment can perform enhanced uplink service in a target cell, sending by the network side a handover command carrying information of random access resources of the target cell to the User Equipment; and (b) after the User Equipment completes the cell handover's process, if there are data available for transmission in buffer(s) corresponding to enhanced uplink radio bearer(s), initiating by the User Equipment an enhanced uplink random access according to the information of random access resources carried in the handover command to request scheduling resources from a base station Node B;
A vehicle control method for autonomous vehicles, the method comprising: detecting characteristics of a driving environment of an advance traveling vehicle to generate driving environment information, wherein the characteristics of the driving environment includes at least one of a landmark, lane width, speed limit information, or a road surface marker; identifying, by one or more servers (121, 122), differences between the driving environment information of the driving environment and a map data stored in the one or more servers (121, 122); updating, at the one or more servers (121, 122), the map data based on the identified differences to generate an updated map data (DE1', DE2); transmitting the updated map data (DE1', DE2) from the one or more servers (121, 122) to a following vehicle that travels after the advance traveling vehicle; and controlling a driving system of the following vehicle based on the updated map data (DE1', DE2). detecting characteristics of a driving environment of an advance traveling vehicle to generate driving environment information, wherein the characteristics of the driving environment includes at least one of a landmark, lane width, speed limit information, or a road surface marker; identifying, by one or more servers (121, 122), differences between the driving environment information of the driving environment and a map data stored in the one or more servers (121, 122); updating, at the one or more servers (121, 122), the map data based on the identified differences to generate an updated map data (DE1', DE2); transmitting the updated map data (DE1', DE2) from the one or more servers (121, 122) to a following vehicle that travels after the advance traveling vehicle; and controlling a driving system of the following vehicle based on the updated map data (DE1', DE2).
An integrating rod module (202, 600, 800), comprising: a first integrating rod (602a, 702a, 802a, 1002a) made out of a solid material; a second integrating rod (602b, 702b, 802b, 1002b) made out of a solid material; a strap (604b, 704a, 806b, 1010a), said strap mechanically mated to the first integrating rod and the second integrating rod, such that the end (706, 810) of the first integrating rod is proximal to the end (706, 810) of the second integrating rod; and further wherein, the strap is glued to the first integrating rod and the second integrating rod using a first glue; wherein the end of the first integrating rod is glued to the end of the second integrating rod with a second glue; and wherein the second glue comprises an index of refraction substantially the same as the solid material of the first and second integration rods. a first integrating rod (602a, 702a, 802a, 1002a) made out of a solid material; a second integrating rod (602b, 702b, 802b, 1002b) made out of a solid material; a strap (604b, 704a, 806b, 1010a), said strap mechanically mated to the first integrating rod and the second integrating rod, such that the end (706, 810) of the first integrating rod is proximal to the end (706, 810) of the second integrating rod; and further wherein, the strap is glued to the first integrating rod and the second integrating rod using a first glue; wherein the end of the first integrating rod is glued to the end of the second integrating rod with a second glue; and wherein the second glue comprises an index of refraction substantially the same as the solid material of the first and second integration rods.
A method, comprising: receiving a first data set from a first DXA system, the first data set including a first scan data of a subject and a second scan data of a phantom obtained simultaneously with the first DXA system, and a first transformation function based on the first scan data and the second scan data; receiving a second data set from a second DXA system, the second data set including a third scan data of the subject and a fourth scan data of a second phantom obtained simultaneously with the second DXA system, and a second transformation function based on the third scan data and the fourth scan data; generating a first set of standardized bone mineral quantification values for the subject based on the first transformation function; generating a second set of standardized bone mineral quantification values for the subject based on the second transformation function; determining a correlation coefficient based on the second scan data of the phantom and the fourth scan data of the second phantom; and correcting any of the first set of standardized bone mineral quantification values and the second set of standardized bone mineral quantification values based on the correlation coefficient. receiving a first data set from a first DXA system, the first data set including a first scan data of a subject and a second scan data of a phantom obtained simultaneously with the first DXA system, and a first transformation function based on the first scan data and the second scan data; receiving a second data set from a second DXA system, the second data set including a third scan data of the subject and a fourth scan data of a second phantom obtained simultaneously with the second DXA system, and a second transformation function based on the third scan data and the fourth scan data; generating a first set of standardized bone mineral quantification values for the subject based on the first transformation function; generating a second set of standardized bone mineral quantification values for the subject based on the second transformation function; determining a correlation coefficient based on the second scan data of the phantom and the fourth scan data of the second phantom; and
A dermatological composition for topical application comprising an efficient amount of poppy petal extract ( Papaver rhoeas) for use as dermatological medication to promote the nutrition, stimulated growth and regeneration of dermal and epidermal cells.
Charging device, in particular an exhaust-gas turbocharger, - having a bearing housing and a bearing cartridge arranged therein to bear a shaft, - having a securing pin to secure the bearing cartridge against twisting and displacement in axial direction, whereby the securing pin, in the assembled state, engages into an opening on the bearing cartridge, whereby - in the bearing housing a pin receiver is provided, having a first section with a internally-threaded section and a second section, - the securing pin has a head and a shank section with an externally-threaded section, - the second section has a larger diameter than the first section and transitions into the first section via a radial step, - the radial step forms an axial stop for the head of the securing pin, characterised in that - a length of the shank section of the securing pin is sized such that, during assembly, said pin engages first into the opening of the bearing cartridge and aligns the same, before the externally-threaded section interacts with the internally-threaded section. - having a bearing housing and a bearing cartridge arranged therein to bear a shaft, - having a securing pin to secure the bearing cartridge against twisting and displacement in axial direction, whereby the securing pin, in the assembled state, engages into an opening on the bearing cartridge, whereby - in the bearing housing a pin receiver is provided, having a first section with a internally-threaded section and a second section, - the securing pin has a head and a shank section with an externally-threaded section, - the second section has a larger diameter than the first section and transitions into the first section via a radial step, - the radial step forms an axial stop for the head of the securing pin, characterised in that - a length of the shank section of the securing pin is sized such that, during assembly, said pin engages first into the opening of the bearing cartridge and aligns the same, before the externally-threaded section interacts with the internally-threaded section.
A manufacturing method for a solar module having a sealing member and a solar cell string arranged inside the sealing member, the solar cell string having a plurality of solar cells, a wiring member connecting the plurality of solar cells electrically, and a resin adhesive bonding the wiring member and the plurality of solar cells, the manufacturing method comprising the steps of: stacking a first resin sheet for constituting a portion of the sealing member, the solar cell string, and a second resin sheet for constituting another portion of the sealing member in this order to create a multilayer, wherein at least one of the first and second resin sheets (21, 22) contains a non-crosslinked resin; and laminating the multilayer to configure the sealing member from the first and second resin sheets (21, 22) and obtain a solar module; characterized by the lamination of the multilayer being performed at a temperature less than the glass transition temperature of the resin adhesive by at least 20°C, and the melting point of the sealing member being from 60°C to 180°C. stacking a first resin sheet for constituting a portion of the sealing member, the solar cell string, and a second resin sheet for constituting another portion of the sealing member in this order to create a multilayer, wherein at least one of the first and second resin sheets (21, 22) contains a non-crosslinked resin; and laminating the multilayer to configure the sealing member from the first and second resin sheets (21, 22) and obtain a solar module; characterized by the lamination of the multilayer being performed at a temperature less than the glass transition temperature of the resin adhesive by at least 20°C, and the melting point of the sealing member being from 60°C to 180°C.
A method of controlling a Counter-Rotating Open-Rotor (CROR) comprises the steps of: mechanically linking, with a cam or other mechanical linkage, a pitch change system of a first rotor with a pitch change system of a second rotor; and commanding a Blade Angle (Beta1 commanded) of the first rotor such that a Blade Angle (Beta2 Actual) of the second rotor is a function of the commanded Blade Angle (Beta1 commanded) to provide a linear relationship between an actual Blade angle (Beta1 Actual) and Beta1 commanded of the first rotor and a non-linear relationship between Beta2 Actual and Beta1 commanded through a scheduling function provided mechanically with said cam or other mechanical linkage. mechanically linking, with a cam or other mechanical linkage, a pitch change system of a first rotor with a pitch change system of a second rotor; and commanding a Blade Angle (Beta1 commanded) of the first rotor such that a Blade Angle (Beta2 Actual) of the second rotor is a function of the commanded Blade Angle (Beta1 commanded) to provide a linear relationship between an actual Blade angle (Beta1 Actual) and Beta1 commanded of the first rotor and a non-linear relationship between Beta2 Actual and Beta1 commanded through a scheduling function provided mechanically with said cam or other mechanical linkage.