mhurhangee/ep-ind-claims huggingface dataset:
A battery container which is to house a battery for a vehicle and which is to be attached between at least two frames disposed in the vehicle, the battery container comprising: a bottom plate; a wall member which is raised from a circumference of the bottom plate and which includes a side wall member (38, 40) disposed along the frames; and an outer frame which is attached to an outer side of the side wall member (38, 40); characterised by an inner frame which is attached to an inner side of the side wall member (38, 40), wherein the outer frame and the inner frame are extended in a substantially same direction along the side wall member (38, 40), and the side wall member (38, 40) is clampingly held between the outer frame and the inner frame. a bottom plate; a wall member which is raised from a circumference of the bottom plate and which includes a side wall member (38, 40) disposed along the frames; and an outer frame which is attached to an outer side of the side wall member (38, 40); characterised by an inner frame which is attached to an inner side of the side wall member (38, 40), wherein the outer frame and the inner frame are extended in a substantially same direction along the side wall member (38, 40), and the side wall member (38, 40) is clampingly held between the outer frame and the inner frame.
A method for producing a structure including a plurality of fibers, the method comprising: providing a collector with a predefined pattern, the collector including at least one of a plurality of ribs and a plurality of seams that are interconnected to form the predefined pattern, the collector further including at least one surface which is a filling of a void formed between the at least one of the plurality of ribs and the plurality of seams; charging the collector with a first polarity; providing a spinneret, the spinneret configured to dispense a polymer on the provided collector; charging of the spinneret to a second polarity substantially opposite of the first polarity; and dispensing the polymer on the collector via a focusing device, such that the polymer forms the plurality of fibers defining the structure, wherein the structure has at least two densities formed by the plurality of fibers. providing a collector with a predefined pattern, the collector including at least one of a plurality of ribs and a plurality of seams that are interconnected to form the predefined pattern, the collector further including at least one surface which is a filling of a void formed between the at least one of the plurality of ribs and the plurality of seams; charging the collector with a first polarity; providing a spinneret, the spinneret configured to dispense a polymer on the provided collector; charging of the spinneret to a second polarity substantially opposite of the first polarity; and dispensing the polymer on the collector via a focusing device, such that the polymer forms the plurality of fibers defining the structure, wherein the structure has at least two densities formed by the plurality of fibers.
A speaker module, comprising a first enclosure, a speaker core, and a waterproof breathable film, wherein the first enclosure is provided with an accommodating groove, the speaker core is mounted on the accommodating groove, the speaker core comprises a sound diaphragm, a front sound cavity is formed between the sound diaphragm and the first enclosure, a rear sound cavity is on a side that is of the sound diaphragm, and the side that is of the sound diaphragm is away from the front sound cavity; the first enclosure is further provided with a resonant groove, a bottom of the resonant groove is provided with a communicating hole, the resonant groove communicates with the front sound cavity through the communicating hole, and the waterproof breathable film covers an opening that is of the resonant groove and that faces the rear sound cavity, to isolate the resonant groove from the rear sound cavity; and the first enclosure is further provided with a groove, an opening of the groove is located on a bottom wall surface of the accommodating groove; characterized in that the sound diaphragm comprises a dome and a diaphragm bearing the dome, and the dome directly faces the groove; the dome is in a rectangular plate shape; and the diaphragm is in a rectangular ring shape. the first enclosure is further provided with a resonant groove, a bottom of the resonant groove is provided with a communicating hole, the resonant groove communicates with the front sound cavity through the communicating hole, and the waterproof breathable film covers an opening that is of the resonant groove and that faces the rear sound cavity, to isolate the resonant groove from the rear sound cavity; and the first enclosure is further provided with a groove, an opening of the groove is located on a bottom wall surface of the accommodating groove; characterized in that the sound diaphragm comprises a dome and a diaphragm bearing the dome, and the dome directly faces the groove; the dome is in a rectangular plate shape; and the diaphragm is in a rectangular ring shape.
Anchorage point or lashing point on an object, wherein the anchorage point or lashing point can be coupled to a lifting, pulling or lashing means, and wherein the anchorage point or lashing point has a base body and an eyelet body, wherein the eyelet body is coupled relatively movably over the base body on the object and the eyelet body can be moved from a position of rest into a position of use, characterised in that at least one magnet is inserted into the eyelet body such that the magnet holds the eyelet body with its magnetic force in the position of rest or position of use on the object or on a support surface and/or on the base body.
A medical optical connector for reversibly connecting two associated optical fibers (12, 14) for use in medical interventions, comprising: - a fiber carrying unit (16, 18) for inserting an end portion of at least one of the associated optical fibers (12, 14), and - an optical arrangement for interacting with a light beam from one of the associated optical fibers (12, 14) and conducting the light beam to the other one of the associated optical fibers (12, 14) in a connected state of the medical optical connector, the optical arrangement comprising at least two gradient index elements (22a, 22b) and an additional optical element (23, 25) arranged between the at least two gradient index elements, characterized in that the additional optical element is replaceable and provides for a sterility barrier between the associated fibers (12, 14), wherein the additional optical element comprises a glass plate, a membrane and/or a prism. - a fiber carrying unit (16, 18) for inserting an end portion of at least one of the associated optical fibers (12, 14), and - an optical arrangement for interacting with a light beam from one of the associated optical fibers (12, 14) and conducting the light beam to the other one of the associated optical fibers (12, 14) in a connected state of the medical optical connector, the optical arrangement comprising at least two gradient index elements (22a, 22b) and an additional optical element (23, 25) arranged between the at least two gradient index elements,
An acoustic reflector comprising a shell surrounding a core, said shell having one or a plurality of acoustic windows through which acoustic waves incident on the surface of the shell are transmitted into the core, and in which acoustic waves entering the core are reflected from the interior of the shell opposite the window(s) back towards and through the window(s) characterised in that the core is a join-free solid.
A method for controlling the operation of a rear light set of a tractor of a vehicle, the rear light set comprising a plurality of rear lights, the vehicle further comprising a trailer which can be pivotably connected to the tractor about a substantially vertical axis and which comprises the same set of rear lights, the method comprising: - detecting whether a trailer is connected to the tractor; characterized in that the method further comprises: - detecting a steering angle (α) of the vehicle; - if a trailer is detected to be connected to the tractor and if there is at least one activated rear light in the trailer rear light set: - in case the steering angle (α) of the vehicle is below a predetermined threshold (αth), deactivating at least the rear light(s) of the tractor rear light set which is (are) of the same type as the activated rear light of the trailer rear light set; - in case the steering angle (α) of the vehicle is above said predetermined threshold (αth), in a so-called manoeuvring operation, activating at least the rear light of the tractor rear light set which is of the same type as the activated rear light of the trailer rear light set and which is located outside of the turn. - detecting whether a trailer is connected to the tractor; - detecting a steering angle (α) of the vehicle; - if a trailer is detected to be connected to the tractor and if there is at least one activated rear light in the trailer rear light set: - in case the steering angle (α) of the vehicle is below a predetermined threshold (αth), deactivating at least the rear light(s) of the tractor rear light set which is (are) of the same type as the activated rear light of the trailer rear light set; - in case the steering angle (α) of the vehicle is above said predetermined threshold (αth), in a so-called manoeuvring operation, activating at least the rear light of the tractor rear light set which is of the same type as the activated rear light of the trailer rear light set and which is located outside of the turn. - in case the steering angle (α) of the vehicle is below a predetermined threshold (αth), deactivating at least the rear light(s) of the tractor rear light set which is (are) of the same type as the activated rear light of the trailer rear light set; - in case the steering angle (α) of the vehicle is above said predetermined threshold (αth), in a so-called manoeuvring operation, activating at least the rear light of the tractor rear light set which is of the same type as the activated rear light of the trailer rear light set and which is located outside of the turn.
Method for operating a wireless communication network or a network element thereof, the network comprising a plurality of baseband processing devices, the method comprising - determining a delay metric (RTT_BBU) that depends on a network delay between the network element and at least one baseband processing device of the plurality of baseband processing devices, wherein the delay metric (RTT_BBU) is determined during an initialisation phase of the network element before an event (e) occurs that triggers allocation or reallocation of processing resources of the at least one baseband processing device, and - selecting (55, 65) the at least one baseband processing device of the plurality of baseband processing devices for remote processing depending on the delay metric (RTT_BBU). - determining a delay metric (RTT_BBU) that depends on a network delay between the network element and at least one baseband processing device of the plurality of baseband processing devices, wherein the delay metric (RTT_BBU) is determined during an initialisation phase of the network element before an event (e) occurs that triggers allocation or reallocation of processing resources of the at least one baseband processing device, and - selecting (55, 65) the at least one baseband processing device of the plurality of baseband processing devices for remote processing depending on the delay metric (RTT_BBU).
A method for forming a composite object in an loT network, the method being performed by an apparatus including the composite object which includes a device owner, also including a name server, the method comprising building, by a primary collection group member of the composite object, a list of sub-objects making up the composite object; creating, by the primary collection group member, a first collection group identifier; sending, by one or more of the sub-objects, corresponding one or more join requests to the name server; accepting, by the name server, the first collection group identifier from the primary collection group member; getting, by the name server, the first collection group identifier from a blockchain; determining, from the blockchain, if the first collection group identifier is already in use; and in response to determining that the first collection group identifier is in use, generating a second collection group identifier; and in response to determining that the first collection group identifier is not in use, determining whether group membership is privacy sensitive; in response to determining that the group membership is privacy sensitive acting, by the primary collection group member, as a proxy brokering join requests from the sub-objects determining whether a requester is an authorized group member; in response to determining that the requester is an authorized group member performing a join request; and committing, by the name server, the first collection group identifier to the blockchain. building, by a primary collection group member of the composite object, a list of sub-objects making up the composite object; creating, by the primary collection group member, a first collection group identifier; sending, by one or more of the sub-objects, corresponding one or more join requests to the name server; accepting, by the name server, the first collection group identifier from the primary collection group member; getting, by the name server, the first collection group identifier from a blockchain; determining, from the blockchain, if the first collection group identifier is already in use; and in response to determining that the first collection group identifier is in use, generating a second collection group identifier; and in response to determining that the first collection group identifier is not in use, determining whether group membership is privacy sensitive; in response to determining that the group membership is privacy sensitive acting, by the primary collection group member, as a proxy brokering join requests from the sub-objects determining whether a requester is an authorized group member; in response to determining that the requester is an authorized group member performing a join request; and committing, by the name server, the first collection group identifier to the blockchain.
An isolated polypeptide having cellulolytic enhancing activity, selected from the group consisting of: (a) a polypeptide having at least 90% sequence identity to the mature polypeptide of SEQ ID NO: 10; (b) a polypeptide encoded by a polynucleotide having at least 95% sequence identity to the mature polypeptide coding sequence of SEQ ID NO: 9 or the cDNA sequences thereof; and (c) a fragment of the polypeptide of (a) that has cellulolytic enhancing activity. (a) a polypeptide having at least 90% sequence identity to the mature polypeptide of SEQ ID NO: 10; (b) a polypeptide encoded by a polynucleotide having at least 95% sequence identity to the mature polypeptide coding sequence of SEQ ID NO: 9 or the cDNA sequences thereof; and (c) a fragment of the polypeptide of (a) that has cellulolytic enhancing activity.
A method, comprising: equalizing by an apparatus, based on a pilot block, a group of data symbols for a current block of data symbols in a plurality of blocks received over a communication channel to generate a group of equalized symbols; de-rotating by the apparatus the group of equalized symbols as a function of a phase estimate to determine initial de-rotated equalized symbols, wherein the phase estimate is an estimate of phase caused by noise for blocks previous to the current block of data symbols, calculating by the apparatus a phase metric from real and imaginary parts of the initial de-rotated equalized symbols in the group, wherein the phase metric estimates phase caused by noise for the current block; updating by the apparatus the current phase estimate with the phase metric; de-rotating by the apparatus the initial de-rotated equalized symbols by the phase metric to determine final equalized and de-rotated symbol estimates; and outputting by the apparatus the final equalized and de-rotated symbol estimates, wherein the phase metric is calculated as θ = r R T r R − r I T r I 4 ∑ l = 0 N D − 1 Re r l ‖ Im r l, where r R is a vector containing a real part of a plurality of initial de-rotated equalized symbols, r I is a vector containing an imaginary part of the plurality of initial de-rotated equalized symbols, and r is the I th initial de-rotated equalized symbol. equalizing by an apparatus, based on a pilot block, a group of data symbols for a current block of data symbols in a plurality of blocks received over a communication channel to generate a group of equalized symbols; de-rotating by the apparatus the group of equalized symbols as a function of a phase estimate to determine initial de-rotated equalized symbols, wherein the phase estimate is an estimate of phase caused by noise for blocks previous to the current block of data symbols, calculating by the apparatus a phase metric from real and imaginary parts of the initial de-rotated equalized symbols in the group, wherein the phase metric estimates phase caused by noise for the current block; updating by the apparatus the current phase estimate with the phase metric; de-rotating by the apparatus the initial de-rotated equalized symbols by the phase metric to determine final equalized and de-rotated symbol estimates; and outputting by the apparatus the final equalized and de-rotated symbol estimates, wherein the phase metric is calculated as θ = r R T r R − r I T r I 4 ∑ l = 0 N D − 1 Re r l ‖ Im r l, where r R is a vector containing a real part of a plurality of initial de-rotated equalized symbols, r I is a vector containing an imaginary part of the plurality of initial de-rotated equalized symbols, and r is the I th initial de-rotated equalized symbol.
A method of producing a recombinant protein comprising: (a) disposing a plurality of recombinant mammalian cells into a first culture medium comprised within a vessel to provide a first cell culture; (b) batch culturing the first cell culture to a cell density range of about 1.0 x 10 6 cells/mL to about 5.0 x 10 6 cells/mL; (c) disposing a volume of the first cell culture of step (b) into a second culture medium comprised within a perfusion bioreactor to provide a second cell culture with an initial cell density in a range of about 0.25 x 10 6 cells/mL to about 0.5 x 10 6 cells/mL; (d) perfusion culturing the second cell culture to a cell density range of between about 5 x 10 6 cells/mL to about 120 x 10 6 cells/mL; (e) disposing a volume of the second cell culture of step (d) into a third culture medium comprised within a production bioreactor to provide a production cell culture with an initial cell density in a range of about 0.25 x 10 6 cells/mL to about 10 x 10 6 cells/mL; (f) perfusion culturing the production cell culture under conditions that allow the recombinant mammalian cells to secrete a recombinant protein; and (g) harvesting the recombinant protein from the production cell culture. (a) disposing a plurality of recombinant mammalian cells into a first culture medium comprised within a vessel to provide a first cell culture; (b) batch culturing the first cell culture to a cell density range of about 1.0 x 10 6 cells/mL to about 5.0 x 10 6 cells/mL; (c) disposing a volume of the first cell culture of step (b) into a second culture medium comprised within a perfusion bioreactor to provide a second cell culture with an initial cell density in a range of about 0.25 x 10 6 cells/mL to about 0.5 x 10 6 cells/mL; (d) perfusion culturing the second cell culture to a cell density range of between about 5 x 10 6 cells/mL to about 120 x 10 6 cells/mL; (e) disposing a volume of the second cell culture of step (d) into a third culture medium comprised within a production bioreactor to provide a production cell culture with an initial cell density in a range of about 0.25 x 10 6 cells/mL to about 10 x 10 6 cells/mL; (f) perfusion culturing the production cell culture under conditions that allow the recombinant mammalian cells to secrete a recombinant protein; and (g) harvesting the recombinant protein from the production cell culture.
A flexible member (520, 540, 600) for use in an articulating mechanism, the flexible member comprising: a first link (502, 522, 542, 602); a second link (504, 524, 544, 604); an intermediate portion (534, 536, 554, 556, 624, 626); a first hinge (506, 526, 546, 606) between the first link and the intermediate portion; a second hinge (508, 528, 548, 608) between the second link and the intermediate portion, the first and second hinges being consecutive along the member; and a plurality of cables for rotating the first and second links about the first and second hinges; wherein the first and second hinges are oriented parallel to each other to permit the first and second links to rotate in the same plane about the first and second hinges, respectively; wherein the first and second links are rotatable about the first and second hinges in two directions under control of the cables; characterised in that: the first link, the second link, the intermediate portion, the first hinge, and the second hinge are integrally formed; and the cables extend through channels (512, 612) in the first link and the second link without extending through the intermediate portion. a first link (502, 522, 542, 602); a second link (504, 524, 544, 604); an intermediate portion (534, 536, 554, 556, 624, 626); a first hinge (506, 526, 546, 606) between the first link and the intermediate portion; a second hinge (508, 528, 548, 608) between the second link and the intermediate portion, the first and second hinges being consecutive along the member; and a plurality of cables for rotating the first and second links about the first and second hinges; wherein the first and second hinges are oriented parallel to each other to permit the first and second links to rotate in the same plane about the first and second hinges, respectively; wherein the first and second links are rotatable about the first and second hinges in two directions under control of the cables; characterised in that: the first link, the second link, the intermediate portion, the first hinge, and the second hinge are integrally formed; and the cables extend through channels (512, 612) in the first link and the second link without extending through the intermediate portion. the first link, the second link, the intermediate portion, the first hinge, and the second hinge are integrally formed; and the cables extend through channels (512, 612) in the first link and the second link without extending through the intermediate portion.