mhurhangee/ep-ind-claims huggingface dataset:
A method of operating an Intelligent Transport System Station (ITS-S) to provide Collective Perception Services, the method comprising: generating, by a CPS facility in a facilities layer of the ITS-S, a Collective Perception Message including a Layered Costmap container, the LCM container being a data structure including LCM data, the LCM data indicating cost values of corresponding cells in a layered costmap, the cost values being probabilities that perceived objects are present in the corresponding cells; inserting one or more layers of an LCM into the LCM container, wherein the one or more layers of the LCM include a static costmap layer, a perceived obstacle costmap layer, an inflation costmap layer, a collective perception layer; and transmitting or broadcasting, by the CPS facility, the CPM to one or more proximate ITS-Ss that are within a predefined distance from the ITS-S. generating, by a CPS facility in a facilities layer of the ITS-S, a Collective Perception Message including a Layered Costmap container, the LCM container being a data structure including LCM data, the LCM data indicating cost values of corresponding cells in a layered costmap, the cost values being probabilities that perceived objects are present in the corresponding cells; inserting one or more layers of an LCM into the LCM container, wherein the one or more layers of the LCM include a static costmap layer, a perceived obstacle costmap layer, an inflation costmap layer, a collective perception layer; and transmitting or broadcasting, by the CPS facility, the CPM to one or more proximate ITS-Ss that are within a predefined distance from the ITS-S.
A refrigerator, comprising: a storing compartment for accommodating an object to be frozen, the upper portion of the storing compartment is separated by a partition member; a cooler for cooling air supplied to the storing compartment; a cooling compartment for accommodating the cooler; a supply air duct disposed at the back side of the storing compartment and for flowing the air cooled by the cooler from the cooling compartment to the supply air duct by a blower; a first supply air duct disposed between the partition member and the heat insulation partition wall above the storing compartment, wherein the cold air supplied from the supply air duct to the storing compartment passes through the first supply air duct during normal cooling operation; and a second supply air duct disposed between the partition member and the heat insulation partition wall above the storing compartment and disposed separately from the first supply air duct, a front end portion of the second supply air duct extends above a shelf on which the object to be frozen is placed, wherein the cold air supplied from the supply air duct and blown toward the object to be frozen passes through the second supply air duct during rapid cooling operation; and a blower for rapid freezing provided at the intersection between the rear end of the second supply air duct and the supply air duct and disposed at a rearward position compared with the rear end portion of the storing compartment, wherein the blower is used for blowing cold air to the second supply air duct during rapid cooling operation. a storing compartment for accommodating an object to be frozen, the upper portion of the storing compartment is separated by a partition member; a cooler for cooling air supplied to the storing compartment; a cooling compartment for accommodating the cooler; a supply air duct disposed at the back side of the storing compartment and for flowing the air cooled by the cooler from the cooling compartment to the supply air duct by a blower; a first supply air duct disposed between the partition member and the heat insulation partition wall above the storing compartment, wherein the cold air supplied from the supply air duct to the storing compartment passes through the first supply air duct during normal cooling operation; and a second supply air duct disposed between the partition member and the heat insulation partition wall above the storing compartment and disposed separately from the first supply air duct, a front end portion of the second supply air duct extends above a shelf on which the object to be frozen is placed, wherein the cold air supplied from the supply air duct and blown toward the object to be frozen passes through the second supply air duct during rapid cooling operation; and a blower for rapid freezing provided at the intersection between the rear end of the second supply air duct and the supply air duct and disposed at a rearward position compared with the rear end portion of the storing compartment, wherein the blower is used for blowing cold air to the second supply air duct during rapid cooling operation.
Rotor for an electric machine, said rotor comprising: - a rotor body, formed by a stack of laminations, which is preferably placed on a rotor shaft and - N pairs of magnetic poles, each magnetic pole being made up of at least three magnets positioned in axial recesses, and - three flux barriers that make up each magnetic pole, including one external flux barrier, one central flux barrier and one internal flux barrier, each flux barrier (9, 10, 11) comprising two inclined recesses that are positioned on either side of each axial recess, each flux barrier (9, 10, 11) being spaced apart from said axial recess by a magnetic bridge (20, 21, 22); characterized in that said rotor also comprises: - N primary magnetic poles, and for each primary magnetic pole, on either side of said axial recess, the internal magnetic bridges, central magnetic bridges and external magnetic bridges are aligned along an axis Δ1 forming an angle α1 with respect to the radial direction R1 of said primary magnetic pole; - N secondary magnetic poles, and for each secondary magnetic pole, on either side of said axial recess, the internal magnetic bridges, central magnetic bridges and external magnetic bridges are aligned along an axis Δ2 forming an angle α2 with respect to the radial direction R2 of said primary magnetic pole; - such that the angles α1 and α2 satisfy the following equation expressed in degrees: α 2 = α 1 + 1 ± 0.5. - a rotor body, formed by a stack of laminations, which is preferably placed on a rotor shaft and - N pairs of magnetic poles, each magnetic pole being made up of at least three magnets positioned in axial recesses, and - three flux barriers that make up each magnetic pole, including one external flux barrier, one central flux barrier and one internal flux barrier, each flux barrier (9, 10, 11) comprising two inclined recesses that are positioned on either side of each axial recess, each flux barrier (9, 10, 11) being spaced apart from said axial recess by a magnetic bridge (20, 21, 22); - N primary magnetic poles, and for each primary magnetic pole, on either side of said axial recess, the internal magnetic bridges, central magnetic bridges and external magnetic bridges are aligned along an axis Δ1 forming an angle α1 with respect to the radial direction R1 of said primary magnetic pole; - N secondary magnetic poles, and for each secondary magnetic pole, on either side of said axial recess, the internal magnetic bridges, central magnetic bridges and external magnetic bridges are aligned along an axis Δ2 forming an angle α2 with respect to the radial direction R2 of said primary magnetic pole; - such that the angles α1 and α2 satisfy the following equation expressed in degrees: α 2 = α 1 + 1 ± 0.5.
An industrial process for the synthesis of testosterone comprising the biocatalytic reduction of 4-androstene-3,17-dione using the recombinant murine enzyme Type V 17β-hydroxysteroid dehydrogenase comprising the amino acid sequence of SEQ. ID No. 2.
Rotary feedthrough having a stator and a rotor, which each have at least one fluid channel (3.1, 3.2, 4.1, 4.2); having a fluid transfer interface between the stator and the rotor, via which a fluid flows out of the fluid channel (3.1, 3.2) in the stator into the fluid channel (4.1, 4.2) in the rotor or vice versa, wherein the fluid transfer interface is sealed off from the environment by means of a face seal comprising an abrasive sliding ring, and the sliding ring, elastically pretensioned in an axial direction, rests against at least one counter-ring and forms a sealing surface with the latter; characterized in that an axial displacement detection device is provided which is set up to detect, when the sliding ring is worn, an associated axial displacement of the stator and/or of the rotor, wherein the axial displacement detection device comprises a rotary encoder on the rotor and a sensor that detects a position of the rotary encoder and is radially opposite the rotary encoder, and the rotary encoder comprises at least one discrete marking or a plurality of discrete markings spaced apart from one another in the circumferential direction and arranged successively on the rotor, and the at least one discrete marking varies in its extension in the circumferential direction along the axial direction and/or different numbers of individual discrete markings are provided in succession in the circumferential direction in different axial sections of the rotor. having a stator and a rotor, which each have at least one fluid channel (3.1, 3.2, 4.1, 4.2); having a fluid transfer interface between the stator and the rotor, via which a fluid flows out of the fluid channel (3.1, 3.2) in the stator into the fluid channel (4.1, 4.2) in the rotor or vice versa, wherein the fluid transfer interface is sealed off from the environment by means of a face seal comprising an abrasive sliding ring, and the sliding ring, elastically pretensioned in an axial direction, rests against at least one counter-ring and forms a sealing surface with the latter; characterized in that an axial displacement detection device is provided which is set up to detect, when the sliding ring is worn, an associated axial displacement of the stator and/or of the rotor, wherein the axial displacement detection device comprises a rotary encoder on the rotor and a sensor that detects a position of the rotary encoder and is radially opposite the rotary encoder, and the rotary encoder comprises at least one discrete marking or a plurality of discrete markings spaced apart from one another in the circumferential direction and arranged successively on the rotor, and the at least one discrete marking varies in its extension in the circumferential direction along the axial direction and/or different numbers of individual discrete markings are provided in succession in the circumferential direction in different axial sections of the rotor.
A dispensing head for an underground sprinkler of the type comprising a main tubular outer body, intended to be vertically buried underground, and an inner body or moving piston slidably inserted into said main body and ending with a water dispensing head provided with a diffusing unit (16, 17), said piston being typically elastically held in a resting position with its head lowered and displaceable to the irrigation position with the head lifted by a pressure of the water supplied to the base of the main body, said dispensing head comprising a jet adjusting unit arranged in a position so as to be manually accessible from the outside when said head is lifted to the irrigation position, and being characterized in that said adjusting unit substantially comprises a rotary annular body or intermediate body arranged in an intermediate position between an upper body supporting the diffusing unit (16, 17) and a lower body secured to the piston for moving the head, said rotary intermediate body being provided with water-passing loops which, by changing the angular position of the intermediate body, can overlap or not corresponding loops of the lower body to partially or completely open or close the passage of water from the base of said main body to the diffusing unit (16, 17), an insert being snap-fitted in said upper body, having an annular peripheral wall and a circular intermediate cross-bar crossed by axial holes arranged circumferentially, dividing the inner space of the insert into a lower cavity and an upper cavity, said insert ending at the top in an annular neck with a central blind hole, which is inserted into an axial upper hole of said upper body so as to define an annular slit surrounding it.
A cooling cycle apparatus comprising: a pair of compressors (51a, 51b) for compressing refrigerant; an outdoor heat exchanger for performing heat exchange between the refrigerant and outdoor air to condense/vaporize the refrigerant; an indoor heat exchanger for performing heat exchange between the refrigerant and indoor air to vaporize/condense the refrigerant; a linear expansion valve for expanding the refrigerant condensed by one of the outdoor and indoor heat exchangers (54, 56) to decompress the condensed refrigerant such that the decompressed refrigerant is introduced into the other of the outdoor and indoor heat exchangers (54, 56); a suction overheat level measuring unit (52a, 55, 57) for measuring suction overheat level of the compressors (51a, 51b); a discharge pipe sensor for measuring discharge temperature of the compressors (51a, 51b); and a microcomputer for controlling the linear expansion valve based on the suction overheat level measured by the suction overheat level measuring unit (52a, 55, 57) and the discharge temperature measured by the discharge pipe sensor according to a method of claim 3 or 5; wherein the suction overheat level measuring unit (52a, 55, 57) comprises: an inlet pipe sensor for measuring temperature of the refrigerant introduced into the compressors (51a, 51b); an outdoor pipe sensor for measuring temperature of an outdoor pipe of the outdoor heat exchanger; and an indoor pipe sensor for measuring temperature of an indoor pipe of the indoor heat exchanger. a pair of compressors (51a, 51b) for compressing refrigerant; an outdoor heat exchanger for performing heat exchange between the refrigerant and outdoor air to condense/vaporize the refrigerant; an indoor heat exchanger for performing heat exchange between the refrigerant and indoor air to vaporize/condense the refrigerant; a linear expansion valve for expanding the refrigerant condensed by one of the outdoor and indoor heat exchangers (54, 56) to decompress the condensed refrigerant such that the decompressed refrigerant is introduced into the other of the outdoor and indoor heat exchangers (54, 56); a suction overheat level measuring unit (52a, 55, 57) for measuring suction overheat level of the compressors (51a, 51b); a discharge pipe sensor for measuring discharge temperature of the compressors (51a, 51b); and a microcomputer for controlling the linear expansion valve based on the suction overheat level measured by the suction overheat level measuring unit (52a, 55, 57) and the discharge temperature measured by the discharge pipe sensor according to a method of claim 3 or 5; an inlet pipe sensor for measuring temperature of the refrigerant introduced into the compressors (51a, 51b); an outdoor pipe sensor for measuring temperature of an outdoor pipe of the outdoor heat exchanger; and an indoor pipe sensor for measuring temperature of an indoor pipe of the indoor heat exchanger.
A method of continuously washing a poly(vinyl butyral) resin in a counter-current manner, the method comprising: providing a first continuous stirred tank reactor; providing a second continuous stirred tank reactor in series with said first continuous stirred tank reactor; adding a continuous stream of poly(vinyl butyral) slurry to said first continuous stirred tank reactor; washing said continuous stream of poly(vinyl butyral) slurry in said first continuous stirred tank reactor to form a once washed polyvinyl butyral) slurry; moving said once washed polyvinyl butyral) slurry to said second continuous stirred tank reactor; washing said once washed poly(vinyl butyral) slurry in said second continuous stirred tank reactor to form a twice washed poly(vinyl butyral) slurry; and removing said twice washed poly(vinyl butyral) slurry from said second continuous stirred tank reactor; wherein fluid for washing is passed through said continuous stirred tank reactors in a counter-current manner. providing a first continuous stirred tank reactor; providing a second continuous stirred tank reactor in series with said first continuous stirred tank reactor; adding a continuous stream of poly(vinyl butyral) slurry to said first continuous stirred tank reactor; washing said continuous stream of poly(vinyl butyral) slurry in said first continuous stirred tank reactor to form a once washed polyvinyl butyral) slurry; moving said once washed polyvinyl butyral) slurry to said second continuous stirred tank reactor; washing said once washed poly(vinyl butyral) slurry in said second continuous stirred tank reactor to form a twice washed poly(vinyl butyral) slurry; and removing said twice washed poly(vinyl butyral) slurry from said second continuous stirred tank reactor;
The use of an encapsulating film in an electronic device comprising: an upper substrate; a bottom substrate; and a diode between the upper substrate and the bottom substrate; said encapsulating film, comprising: a first layer including a resin component and a moisture scavenger of 30 parts by weight or more with respect to 100 parts by weight of the resin component, and a second layer including 0 to 5 parts by weight of a moisture scavenger with respect to 100 parts by weight of a solid content of the second layer, wherein the second layer is solid or semi-solid at room temperature in a non-cured state, wherein the moisture scavenger comprises a metal oxide, a sulphate or an organic metal oxide, and wherein the second layer is disposed to be in contact with the diode and the bottom substrate, characterized in that the tensile modulus at 25 °C after curing of the first layer is lower than that of the second layer, and in that the tensile modulus at 25 °C of the first layer is of 0.001 to 100 MPa after curing. an upper substrate; a bottom substrate; and a diode between the upper substrate and the bottom substrate; said encapsulating film, comprising: a first layer including a resin component and a moisture scavenger of 30 parts by weight or more with respect to 100 parts by weight of the resin component, and a second layer including 0 to 5 parts by weight of a moisture scavenger with respect to 100 parts by weight of a solid content of the second layer, wherein the second layer is solid or semi-solid at room temperature in a non-cured state, wherein the moisture scavenger comprises a metal oxide, a sulphate or an organic metal oxide, and wherein the second layer is disposed to be in contact with the diode and the bottom substrate, characterized in that the tensile modulus at 25 °C after curing of the first layer is lower than that of the second layer, and in that the tensile modulus at 25 °C of the first layer is of 0.001 to 100 MPa after curing. a first layer including a resin component and a moisture scavenger of 30 parts by weight or more with respect to 100 parts by weight of the resin component, and a second layer including 0 to 5 parts by weight of a moisture scavenger with respect to 100 parts by weight of a solid content of the second layer, wherein the second layer is solid or semi-solid at room temperature in a non-cured state, wherein the moisture scavenger comprises a metal oxide, a sulphate or an organic metal oxide, and wherein the second layer is disposed to be in contact with the diode and the bottom substrate, characterized in that the tensile modulus at 25 °C after curing of the first layer is lower than that of the second layer, and in that the tensile modulus at 25 °C of the first layer is of 0.001 to 100 MPa after curing.
An apparatus for treating a treatment area in a vasculature, comprising: a catheter having a balloon, said balloon including at least two first radiopaque markings (30; 32a, 32b); and a guidewire for guiding the balloon to the treatment area, said guidewire including at least two second radiopaque markings (26a, 26b) adapted for corresponding to the at least two first radiopaque markings of the balloon when positioned at the treatment area, wherein the balloon comprises the at least two first radiopaque markings (32a, 32b) defining the location of a working surface, and the guidewire includes the at least two second radiopaque markings (26a, 26b) arranged to align with the first radiopaque markings (32a, 32b) of the balloon.
A method for performing handover in a bearer separation scenario, wherein a local node is shared by a source macro evolved Node B, eNB, and at least one candidate target macro eNB and located in an area in which the source macro eNB and the at least one candidate target macro eNB overlap, and wherein all bearers of a control plane of a User Equipment, UE, are maintained at the source macro eNB, and bearers of a user plane of the UE are transferred to the local node, the method comprising: transmitting, by the source macro eNB, a handover request to each candidate target macro eNB upon determining that there is a need for performing a handover of the UE, wherein the handover request carries state information indicating that bearers are separated for the UE, and information about the local node where the UE currently resides and/or information about current bearers of the UE at the local node; and selecting, by the source macro eNB, from candidate target macro eNBs returning a handover request response, a target macro eNB to perform the handover for the UE, transmitting a handover command carried in the handover request response returned by the handover target macro eNB to the UE, and stopping transmitting data to the UE and receiving data transmitted by the UE, wherein the local node provides hotspot coverage for the UE and is one of a local eNB, a lower-power pico eNB, a home femto eNB, a Remote Radio Head, RRH, a repeater, and a Relay Node, RN. transmitting, by the source macro eNB, a handover request to each candidate target macro eNB upon determining that there is a need for performing a handover of the UE, wherein the handover request carries state information indicating that bearers are separated for the UE, and information about the local node where the UE currently resides and/or information about current bearers of the UE at the local node; and selecting, by the source macro eNB, from candidate target macro eNBs returning a handover request response, a target macro eNB to perform the handover for the UE, transmitting a handover command carried in the handover request response returned by the handover target macro eNB to the UE, and stopping transmitting data to the UE and receiving data transmitted by the UE, wherein the local node provides hotspot coverage for the UE and is one of a local eNB, a lower-power pico eNB, a home femto eNB, a Remote Radio Head, RRH, a repeater, and a Relay Node, RN.