mhurhangee/ep-ind-claims huggingface dataset:
A wireless ultrasound sensor for non-destructive testing of a test object, the sensor comprising: an ultrasound transducer; a first induction coil, electrically coupled to the ultrasound transducer; a second induction coil, electrically coupled to the ultrasound transducer in parallel with the first induction coil; wherein the first and second induction coils are arranged to enable the transducer to be inductively operated at an operation frequency thereof by a remote device; and wherein the outer diameter (d 2) of the second induction coil is greater than the outer diameter (d 1) of the first induction coil; and wherein the outer diameter of the second induction coil is greater than the outer diameter of the first induction coil by a factor of at least 1.1. an ultrasound transducer; a first induction coil, electrically coupled to the ultrasound transducer; a second induction coil, electrically coupled to the ultrasound transducer in parallel with the first induction coil; wherein the first and second induction coils are arranged to enable the transducer to be inductively operated at an operation frequency thereof by a remote device; and wherein the outer diameter (d 2) of the second induction coil is greater than the outer diameter (d 1) of the first induction coil; and wherein the outer diameter of the second induction coil is greater than the outer diameter of the first induction coil by a factor of at least 1.1.
A method of making a fibrous structural member (10, 100, 200, 300) comprising folding first (34,134, 234, 334, 434, 534, 634, 734, 836, 934) and second (36, 136, 236, 336, 436, 536, 636, 736, 836, 936) integral portions including continuous filaments about a first common fold (50, 150) whereby the portions lie adjacent to each other and folding a third portion (38, 138, 238, 338, 438, 538, 638, 738, 838, 938) about a second fold common with the first portion (34, 134) such that the third portion (38, 138) extends from the first and second portions at an angle thereto and folding a fourth portion (40, 140, 240, 340, 440, 540, 640, 740, 840, 940) about a third fold common with the third portion such that the fourth portion lies adjacent to the third portion, characterized in that the line of the first fold (50, 150) is made at an angle of more than 0° or less than 90° to the line of the second fold.
An air conditioner comprising an outdoor heat exchange unit in which a plurality of refrigerant tubes are disposed to be separated in a plurality of columns in a vertical direction to exchange heat of outdoor air and a refrigerant, the air conditioner further comprising: a first refrigerant distribution device having branch pipes connected to a plurality of refrigerant tubes, respectively, of an upper part among the plurality of refrigerant tubes; a second refrigerant distribution device having branch pipes connected to a plurality of refrigerant tubes, respectively, of a lower part among the plurality of refrigerant tubes; and characterised in that the air conditioner further comprises a communication pipe for communicating one of the branch pipes of the first refrigerant distribution device and one of the branch pipes of the second refrigerant distribution device. a first refrigerant distribution device having branch pipes connected to a plurality of refrigerant tubes, respectively, of an upper part among the plurality of refrigerant tubes; a second refrigerant distribution device having branch pipes connected to a plurality of refrigerant tubes, respectively, of a lower part among the plurality of refrigerant tubes; and characterised in that the air conditioner further comprises a communication pipe for communicating one of the branch pipes of the first refrigerant distribution device and one of the branch pipes of the second refrigerant distribution device.
Method for temporally synchronizing the encrypted input bit stream of a video decoder with the processed video sequence obtained by an external video decoder, the method comprising the steps of: a) supplying the encrypted input bit stream to an analysis module; b) analysing, in the analysis module, the packet header information of the encrypted input bit stream, and calculating the size and the type of the pictures contained in the bit stream; c) extracting, on the basis on the calculated picture sizes and types, features that are representative of the content depicted in the video pictures; d) extracting the type of content and respective features representative of the content from the pictures of the processed video sequence; e) comparing the features extracted in step d) from the current picture of the processed video sequence with the features extracted in step c) from the analysed pictures to compute the part of the bit stream that corresponds to the current PVS. a) supplying the encrypted input bit stream to an analysis module; b) analysing, in the analysis module, the packet header information of the encrypted input bit stream, and calculating the size and the type of the pictures contained in the bit stream; c) extracting, on the basis on the calculated picture sizes and types, features that are representative of the content depicted in the video pictures; d) extracting the type of content and respective features representative of the content from the pictures of the processed video sequence; e) comparing the features extracted in step d) from the current picture of the processed video sequence with the features extracted in step c) from the analysed pictures to compute the part of the bit stream that corresponds to the current PVS.
A legs apron (10; 10A; 10B) for a motor vehicle, comprising: - a middle portion having a longitudinal axis; - a first side portion and a second side portion, which extend laterally on opposite sides with respect to such a middle portion; - wherein the first side portion and the second side portion define a first and a second folding portion (X1, X2), respectively, which extend according to a prevalent direction which is substantially parallel to said longitudinal axis; wherein the legs apron is suitable for taking on an operating configuration wherein the first and the second side portion (30A, 30B) are folded along the first and the second folding portion (X1, X2), respectively, so as to both extend over a respective side transversely with respect to the middle portion; said apron comprises means for protecting against impacts which are adapted to protect the lower limbs of the driver against impacts, the protective means comprising at least a first and a second protective bar (41A, 41B) coupled to the first and to the second side portion (30A, 30B), respectively; wherein said first and second protective bar (41A, 41B) each extend according to a respective prevalent direction of extension (Q1, Q2) which is parallel or substantially parallel to said longitudinal axis; and wherein said first and second protective bar (41A, 41B) are arranged in position proximal to the first and to the second folding portion (X1, X2), respectively, so as to protect at least the femoral portions of the legs of the driver of the motor vehicle in the event of an impact or fall; and said legs apron being characterized in that said first and second protective bar (41A, 41B) are made from a material deformable in compression according to a direction substantially orthogonal to said prevalent direction of extension (Q1, Q2) - a middle portion having a longitudinal axis; - a first side portion and a second side portion, which extend laterally on opposite sides with respect to such a middle portion; - wherein the first side portion and the second side portion define a first and a second folding portion (X1, X2), respectively, which extend according to a prevalent direction which is substantially parallel to said longitudinal axis;
A thread testing device for testing threads, comprising - a housing and a bearing arranged in the housing for rotatably mounting a thread plug gauge for being screwed into a thread to be tested; - a measuring device for measuring the screw-in depth of the rotatably mounted thread plug gauge; and - a guiding and compensation device for guiding the housing and for compensating for an axial offset between housing, bearing and thread; wherein the guiding and compensation device is designed with play for pivoting, at least in sections thereof, for surrounding the housing, and with an inner passage through which the housing extends; and wherein the guiding and compensation device is arranged on the housing so as to be pivotable about at least two axes perpendicular to the longitudinal axis of the housing and so as to be displaceable axially; characterized in that within the range of axial displaceability of the guiding and compensation device, the housing has a conical shape; or that a conical sleeve is arranged between the housing and the guiding and compensation device. - a housing and a bearing arranged in the housing for rotatably mounting a thread plug gauge for being screwed into a thread to be tested; - a measuring device for measuring the screw-in depth of the rotatably mounted thread plug gauge; and - a guiding and compensation device for guiding the housing and for compensating for an axial offset between housing, bearing and thread; and wherein the guiding and compensation device is arranged on the housing so as to be pivotable about at least two axes perpendicular to the longitudinal axis of the housing and so as to be displaceable axially; characterized in that within the range of axial displaceability of the guiding and compensation device, the housing has a conical shape; or that a conical sleeve is arranged between the housing and the guiding and compensation device.
A consumable electrode-fed welding-type system, comprising: a welding-type power source configured to provide welding-type power to a welding-type circuit, the welding-type circuit comprising a welding-type electrode and a first contact tip of a welding torch; an electrode preheating circuit configured to provide preheating power through a first portion of the welding-type electrode via a second contact tip of the welding torch; and an electrode preheating control circuit configured to control the preheating power based on a user input specifying the preheating power; characterised in that the system further comprises a user interface configured to receive a selection of an amount of weld penetration; wherein the electrode preheating control circuit is configured: in response to an increase in the selected weld penetration, to decrease the preheating power and increase the welding-type power; and in response to a decrease in the selected weld penetration, to increase the preheating power and decrease the welding-type power. a welding-type power source configured to provide welding-type power to a welding-type circuit, the welding-type circuit comprising a welding-type electrode and a first contact tip of a welding torch; an electrode preheating circuit configured to provide preheating power through a first portion of the welding-type electrode via a second contact tip of the welding torch; and an electrode preheating control circuit configured to control the preheating power based on a user input specifying the preheating power; characterised in that the system further comprises a user interface configured to receive a selection of an amount of weld penetration; wherein the electrode preheating control circuit is configured: in response to an increase in the selected weld penetration, to decrease the preheating power and increase the welding-type power; and in response to a decrease in the selected weld penetration, to increase the preheating power and decrease the welding-type power. in response to an increase in the selected weld penetration, to decrease the preheating power and increase the welding-type power; and in response to a decrease in the selected weld penetration, to increase the preheating power and decrease the welding-type power.
A method of providing a remote user interface, UI, service of a remote UI client device, the method comprising: receiving optimized scalable vector graphics, OSVG, information encoded so as to represent graphics comprising contents and a UI from a remote UI server device; decoding the encoded OSVG information; and rendering the decoded OSVG information using an OSVG primitive application programming interface, API; wherein the encoded OSVG information is information obtained by encoding only semantic information representing a changed state in response to renewal of graphics by the remote UI server device, wherein the encoded OSVG information is information that text-based OSVG information is binary-encoded. receiving optimized scalable vector graphics, OSVG, information encoded so as to represent graphics comprising contents and a UI from a remote UI server device; decoding the encoded OSVG information; and rendering the decoded OSVG information using an OSVG primitive application programming interface, API; wherein the encoded OSVG information is information obtained by encoding only semantic information representing a changed state in response to renewal of graphics by the remote UI server device, wherein the encoded OSVG information is information that text-based OSVG information is binary-encoded.
A dehumidifier, comprising a main body, comprising a dehumidification passage in which indoor air is sucked in and the sucked-in indoor air is dehumidified and a reconditioning passage in which reconditioning air circulates; a dehumidification rotor, comprising a dehumidification portion configured to dehumidify the indoor air and a reconditioning portion reconditioned using the reconditioning air; a reconditioning fan ventilating the reconditioning air to the dehumidification rotor; and a condensing heat exchanger in which a plurality of heat exchange plates (220, 240, 260), each comprising a plurality of condensing ducts (226, 246, 266), is arranged in parallel, wherein the condensing ducts are configured so that the reconditioning air passed through the reconditioning portion is sucked in through upper parts of the condensing ducts and the sucked-in reconditioning air is discharged through lower parts of the condensing ducts, characterised in that the reconditioning air discharge units (224, 244, 264) for discharging the reconditioning air passed through the dehumidification rotor are formed on right or left sides of lower parts of the plurality of respective heat exchange plates, and wherein the condensing heat exchanger includes a duct having a pipe that connects the reconditioning air discharge units and the reconditioning fan, and the duct includes enough inlet units to accommodate all the reconditioning air discharge units.
A composition for use as an organic semiconducting material, the composition comprising: (i) at least one higher molecular weight organic semiconducting compound having a number average molecular weight (M n) of at least 5000, and (ii) at least one lower molecular weight organic semiconducting compound having a number average molecular weight (M n) of 1000 or less, wherein the higher and lower molecular weight semiconducting compounds are present in the composition in the relative proportions 30:70 - 70:30 parts by weight. (i) at least one higher molecular weight organic semiconducting compound having a number average molecular weight (M n) of at least 5000, and (ii) at least one lower molecular weight organic semiconducting compound having a number average molecular weight (M n) of 1000 or less,
A control system for a needle-free transdermal transport device (100, 400) configured to inject a substance through a surface of a biological body, the control system comprising: a sensor for sensing a parameter of the injection; and a servo-controller to dynamically adjust at least one injection characteristic based on the sensed parameter, wherein the sensor and the servo-controller control the injection of the substance such that the substance is injected for (i) a first time period during which a first portion of a volume of the substance is injected at a first injection pressure, and (ii) a second time period during which a remainder of the volume of the substance is injected at a second injection pressure; and characterised in that: the sensor is selected from the group consisting of a gyrometer, an accelerometer, a sensor that senses deformation of an ampoule carrying the substance, an acoustic sensor or transducer, and a barometric sensor. a sensor for sensing a parameter of the injection; and a servo-controller to dynamically adjust at least one injection characteristic based on the sensed parameter,
An optical sensor comprising: an array of single photon avalanche devices, SPAD, having a plurality of rows and a plurality of columns, wherein: each SPAD has a resistive element, a capacitive element, and a photo detection element, and further comprises a first input, a second input, and an output, wherein: the resistive element and photo detection element are connected in series between the first input and the second input; and the capacitive element is connected between the output and a node between the resistive element and the photo the detection element; each row of the plurality of rows has a corresponding row-select transistor that, when activated, causes the first input of each SPAD in the row to receive a bias voltage; each column of the plurality of rows has a corresponding column - select transistor connected with the second input of each SPAD in the column and has a corresponding column output; and for each column, the output of each SPAD in the column is connected with the column output for that column. each SPAD has a resistive element, a capacitive element, and a photo detection element, and further comprises a first input, a second input, and an output, wherein: the resistive element and photo detection element are connected in series between the first input and the second input; and the capacitive element is connected between the output and a node between the resistive element and the photo the detection element; the resistive element and photo detection element are connected in series between the first input and the second input; and the capacitive element is connected between the output and a node between the resistive element and the photo the detection element; each row of the plurality of rows has a corresponding row-select transistor that, when activated, causes the first input of each SPAD in the row to receive a bias voltage; each column of the plurality of rows has a corresponding column - select transistor connected with the second input of each SPAD in the column and has a corresponding column output; and for each column, the output of each SPAD in the column is connected with the column output for that column.
A delivery system, comprising: a core member having a distal end; and an implant, having a proximal end; characterised in that the delivery system comprises: an axial gap (70, 90, 130) between the distal end and the proximal end; one or more electrolytically corrodible weld joints (68, 88, 128) disposed in the gap (70, 90, 130), the one or more weld joints (68, 88, 128) being further disposed at a radially outermost periphery of the distal end and a radially outermost periphery of the proximal end; and a void in a radially centremost region of the gap (70, 90, 130). a core member having a distal end; and an implant, having a proximal end; characterised in that the delivery system comprises: an axial gap (70, 90, 130) between the distal end and the proximal end; one or more electrolytically corrodible weld joints (68, 88, 128) disposed in the gap (70, 90, 130), the one or more weld joints (68, 88, 128) being further disposed at a radially outermost periphery of the distal end and a radially outermost periphery of the proximal end; and a void in a radially centremost region of the gap (70, 90, 130). an axial gap (70, 90, 130) between the distal end and the proximal end; one or more electrolytically corrodible weld joints (68, 88, 128) disposed in the gap (70, 90, 130), the one or more weld joints (68, 88, 128) being further disposed at a radially outermost periphery of the distal end and a radially outermost periphery of the proximal end; and a void in a radially centremost region of the gap (70, 90, 130).
A method of deploying autonomous underwater vehicles (AUVs), the method comprising loading the AUVs (1a, 1b, 1c) into a deployment device, the deployment device comprising a deployment funnel with a wide opening facing out of the deployment device and a narrow opening facing into the deployment device; submerging the deployment device containing the AUVs after the AUVs have been loaded into the deployment device; towing the submerged deployment device containing the AUVs with a surface vessel; moving the AUVs to the deployment funnel of the submerged deployment device; deploying the AUVs from the deployment funnel of the submerged deployment device as it is towed by the surface vessel; and operating a thruster (310a, 310b) of each AUV after it has been deployed so that it moves away from the submerged deployment device.
A method of managing Radio Resource Control, RRC, states, performed by a wireless device operative in a 5G wireless communication network, the method is characterized by: while in an RRC_INACTIVE state, and performing activities associated with dedicated cell reselection priority information, sending an RRC message to the network requesting to enter an RRC_CONNECTED state; receiving, in response to the RRC message requesting to enter an RRC_CONNECTED state, an RRCRelease message from the network directing the wireless device to enter an RRC_IDLE state or to remain in RRC_INACTIVE state; and in response to the received RRCRelease message and if the received RRCRelease message does not include dedicated cell reselection priority information, if dedicated cell reselection priority information is stored, discarding the stored dedicated cell reselection priority information, discontinuing the activities associated with the dedicated cell reselection priority information and applying cell reselection priority information received in broadcasted system information; wherein performing activities associated with dedicated cell reselection priority information comprises performing cell reselection according to dedicated priorities while a validity timer of the cell reselection priority parameter is running. while in an RRC_INACTIVE state, and performing activities associated with dedicated cell reselection priority information, sending an RRC message to the network requesting to enter an RRC_CONNECTED state; receiving, in response to the RRC message requesting to enter an RRC_CONNECTED state, an RRCRelease message from the network directing the wireless device to enter an RRC_IDLE state or to remain in RRC_INACTIVE state; and in response to the received RRCRelease message and if the received RRCRelease message does not include dedicated cell reselection priority information, if dedicated cell reselection priority information is stored, discarding the stored dedicated cell reselection priority information, discontinuing the activities associated with the dedicated cell reselection priority information and applying cell reselection priority information received in broadcasted system information; discarding the stored dedicated cell reselection priority information, discontinuing the activities associated with the dedicated cell reselection priority information and applying cell reselection priority information received in broadcasted system information; wherein performing activities associated with dedicated cell reselection priority information comprises performing cell reselection according to dedicated priorities while a validity timer of the cell reselection priority parameter is running.