mhurhangee/ep-ind-claims huggingface dataset:
Compressor provided with a compressor element with a driven shaft and a motor with a drive shaft to drive the compressor element, said compressor further being provided with a transmission between said drive shaft and said driven shaft, which transmission comprises a housing and at least a driven gearwheel that is mounted on the driven shaft and a drive gearwheel that is mounted on a drive shaft, characterised in that the housing comprises two separated chambers (20, 22), i.e. a first chamber that is connected to the driven shaft and a second chamber which is separate from the first chamber, whereby the first chamber is connected via a channel with the second chamber, whereby around the drive gearwheel or driven gearwheel the second chamber is formed, whereby the form of the second chamber is such that the second chamber gets bigger in the rotation direction of the gearwheel (11, 14) around which the second chamber is formed and whereby the channel connects to the end of the second chamber as seen in the rotation direction of gearwheel (11, 14) around which the second chamber is formed, all such that when the gearwheel (11, 14) around which the second chamber is formed rotates a gas flow is created around this gearwheel (11, 14) which causes a negative pressure in the channel by the venturi effect.
A ground structure with an Electro Magnetic Compatibility component and/or Electro Static Discharge component (103, 203) for a motor, characterized in that the ground structure comprises: a conductive housing (101, 201) which is a part of a motor housing; and an insulating cover (102, 202) configured to contain an electronic component; the insulating cover (102, 202) being provided with an EMC component and/or ESD component (103, 203), and two conductive terminals (106, 206); the EMC component and/or ESD component (103, 203) having a first pin and a second pin; wherein the ground structure further comprises a conductive cover (105, 205); the insulating cover (102, 202) is located at an inner side of the conductive cover (105, 205), and the conductive cover (105, 205) is tightly covered on the conductive housing (101, 201), the first pin of the EMC component and /or ESD component (103, 203) is configured to be electrically connected to one of the two conductive terminals (106, 206); the second pin of the EMC component and /or ESD component (103, 203) is elongated into a joint surface where the conductive housing (101, 201) and the conductive cover (105, 205) are tightly contacted with each other, and the second pin is bent in between the conductive housing (101, 201) and the conductive cover (105, 205). a conductive housing (101, 201) which is a part of a motor housing; and an insulating cover (102, 202) configured to contain an electronic component; the insulating cover (102, 202) being provided with an EMC component and/or ESD component (103, 203), and two conductive terminals (106, 206); the EMC component and/or ESD component (103, 203) having a first pin and a second pin; wherein the ground structure further comprises a conductive cover (105, 205); the insulating cover (102, 202) is located at an inner side of the conductive cover (105, 205), and the conductive cover (105, 205) is tightly covered on the conductive housing (101, 201), the first pin of the EMC component and /or ESD component (103, 203) is configured to be electrically connected to one of the two conductive terminals (106, 206); the second pin of the EMC component and /or ESD component (103, 203) is elongated into a joint surface where the conductive housing (101, 201) and the conductive cover (105, 205) are tightly contacted with each other, and the second pin is bent in between the conductive housing (101, 201) and the conductive cover (105, 205).
A video information recording method for recording video data encoded according to MPEG4-AVC, the video data comprising a plurality of video units each of which includes an intra-coded I-picture, a predictive coded P-picture including a group of blocks each of which is predicted from one picture and a bi-directionally-predictive coded B-picture including a group of blocks each of which is predicted from two pictures, said method comprising steps of: recording at least an access point P-picture (P5, AP) including a group of blocks each of which is coded by motion compensation prediction using an I-picture located at the beginning of said video unit including said access point P-picture (P5, AP) or a selected one of preceding P-pictures, wherein pictures necessary for decoding said access point P-picture (P5, AP) do not include any B-picture recording a P-picture and a B-picture coded by motion compensation prediction using said access point P-picture (P5, AP) preceding said P-picture and said B-picture, wherein any P-pictures, other than access point P-pictures, and any B-pictures following said access point P-picture (P5, AP) in the same video unit are all coded without referring to any picture preceding said access point P-picture (P5, AP); recording an attribute data including a picture type information having a first value associated with each access point P-picture included in said video unit, and including a picture type information having a second value different from the first value associated with each P-picture included in said video unit that is not an access point P-picture but which is necessary to decode the next access point P-picture (P5, AP), wherein said attribute data is comprised in supplemental enhancement information according to MPEG4-AVC. recording at least an access point P-picture (P5, AP) including a group of blocks each of which is coded by motion compensation prediction using an I-picture located at the beginning of said video unit including said access point P-picture (P5, AP) or a selected one of preceding P-pictures, wherein pictures necessary for decoding said access point P-picture (P5, AP) do not include any B-picture recording a P-picture and a B-picture coded by motion compensation prediction using said access point P-picture (P5, AP) preceding said P-picture and said B-picture, wherein any P-pictures, other than access point P-pictures, and any B-pictures following said access point P-picture (P5, AP) in the same video unit are all coded without referring to any picture preceding said access point P-picture (P5, AP); recording an attribute data including a picture type information having a first value associated with each access point P-picture included in said video unit, and including a picture type information having a second value different from the first value associated with each P-picture included in said video unit that is not an access point P-picture but which is necessary to decode the next access point P-picture (P5, AP), wherein said attribute data is comprised in supplemental enhancement information according to MPEG4-AVC.
An electrospinning device for manufacturing material comprising aligned nano-fibres, the electrospinning device comprising: a rotatable member; a plurality of electrically conducting protrusions disposed on the surface of the rotatable member and spaced apart from one another, wherein the protrusions are configured such that an electrostatic field created when a potential difference is applied between the rotatable member and a target is concentrated at the tips of the protrusions and decreases between neighbouring ones of the protrusions; and at least two field modifiers (228a, 228b; 328a, 328b; 428a, 428b) electrically connected to the rotatable member for controlling the strength of the electrostatic field across the length of the rotatable member, wherein the at least two field modifiers are disposed on either side of the rotatable member and are configured to extend to a point between the tips of the protrusions and a target for receiving nano-fibres from the protrusions. a rotatable member; a plurality of electrically conducting protrusions disposed on the surface of the rotatable member and spaced apart from one another, wherein the protrusions are configured such that an electrostatic field created when a potential difference is applied between the rotatable member and a target is concentrated at the tips of the protrusions and decreases between neighbouring ones of the protrusions; and at least two field modifiers (228a, 228b; 328a, 328b; 428a, 428b) electrically connected to the rotatable member for controlling the strength of the electrostatic field across the length of the rotatable member, wherein the at least two field modifiers are disposed on either side of the rotatable member and are configured to extend to a point between the tips of the protrusions and a target for receiving nano-fibres from the protrusions.
A radar apparatus configured to emit a transmission wave relating to a transmission signal comprising respective frequency-modulated up and down sections, to receive a reflected wave coming from a target at which the transmission wave is reflected as a reception signal, and to derive target information including at least a transverse distance of the target from peak signals based on the reception signal, the radar apparatus comprising: a derivation unit configured to derive a decided transverse distance which is a transverse distance of the target at the current processing, by filtering, with a predetermined filter constant, a measured transverse distance which is a transverse distance of paired data in the current processing, obtained by pairing the peak signals of the up and down sections, and a predicted transverse distance which is obtained by predicting a transverse distance of the target for the current processing from a previous decided transverse distance which is a transverse distance of the target at previous time processing; and a change unit configured to change, when the transverse distance of an object moving target moving in a traveling direction of a vehicle mounted with the radar apparatus and the transverse distance of a specific target which is not the object moving target satisfy a predetermined relation, the filter constant for filtering the measured transverse distance and the predicted transverse distance of the object moving target so that a reflection amount of the measured transverse distance is reduced in comparison to before the change. a derivation unit configured to derive a decided transverse distance which is a transverse distance of the target at the current processing, by filtering, with a predetermined filter constant, a measured transverse distance which is a transverse distance of paired data in the current processing, obtained by pairing the peak signals of the up and down sections, and a predicted transverse distance which is obtained by predicting a transverse distance of the target for the current processing from a previous decided transverse distance which is a transverse distance of the target at previous time processing; and a change unit configured to change, when the transverse distance of an object moving target moving in a traveling direction of a vehicle mounted with the radar apparatus and the transverse distance of a specific target which is not the object moving target satisfy a predetermined relation, the filter constant for filtering the measured transverse distance and the predicted transverse distance of the object moving target so that a reflection amount of the measured transverse distance is reduced in comparison to before the change.
A two-stage compression device which includes a low stage-side compressor and a high stage-side compressor serially connected to the low stage-side compressor and which compresses a refrigerant in two stages by using the low stage-side compressor and the high stage-side compressor, wherein a hermetic housing (11, 21) and a compressor (13, 23) embedded inside the hermetic housing (11, 21) are provided in each of the low stage-side compressor and the high stage-side compressor, an oil sump at the bottom of the hermetic housing of the high stage-side compressor and an oil sump at the bottom of the hermetic housing of the low stage-side compressor are connected through an oil return pipe, the embedded compressor of the low stage-side compressor is provided within the hermetic housing of the low stage-side compressor so as to suck a refrigerant from inside the hermetic housing of the low stage-side compressor and discharge said refrigerant outside said hermetic housing of the low stage-side compressor through a discharge pipe, and the embedded compressor of the high stage-side compressor is provided within the hermetic housing of the high stage-side compressor so as to suck the refrigerant discharged by the low stage-side compressor from outside the hermetic housing of the high stage-side compressor through a connection pipe, the device being characterized in that the embedded compressor of the high stage-side compressor discharges said refrigerant inside the hermetic housing of the high stage-side compressor.
A gas turbine engine comprising a compressor, a turbine, a shaft assembly coupling the compressor and the turbine, and a support assembly rotatably supporting the shaft assembly, the engine further comprising a sump for collecting oil from the support assembly and an apparatus for detecting sump airflow reversal in the sump and facilitating avoiding damage to a seal of the sump due to excessive pressures, said apparatus comprising: a first pressure sensor coupled in flow communication with a sump vent for sensing a sump pressure at said sump vent, said first pressure sensor configured to produce a first signal indicative of the sensed pressure; a second pressure sensor within said sump for sensing a sump pressure within said sump, said second pressure sensor configured to produce a second signal indicative of the sensed pressure; and an output device coupled to said first and second pressure sensors (256, 258), said output device configured to receive and display pressure indications based on the first and second signals. a first pressure sensor coupled in flow communication with a sump vent for sensing a sump pressure at said sump vent, said first pressure sensor configured to produce a first signal indicative of the sensed pressure; a second pressure sensor within said sump for sensing a sump pressure within said sump, said second pressure sensor configured to produce a second signal indicative of the sensed pressure; and an output device coupled to said first and second pressure sensors (256, 258), said output device configured to receive and display pressure indications based on the first and second signals.
A computer-implemented method of detecting donning and doffing of an electronic device comprising: generating a capacitance signal based on a capacitance measured by a capacitive sensor within the electronic device; generating an average capacitance signal by averaging the capacitance signal over a period of time; generating an intermediate signal comprising a difference between the capacitance signal and the average capacitance signal; generating at least one of: a don signal and a doff signal, wherein the don signal is generated subsequent to the electronic device changing state from a doffed state to a donned state, and the doff signal is generated subsequent to the electronic device changing state from a donned state to a doffed state, and wherein the don signal is based on a comparison of the intermediate signal to a don threshold and the doff signal is based on a comparison of the intermediate signal to a doff threshold; and setting the average capacitance signal to be equal to the capacitance signal when a don or doff signal is generated. generating a capacitance signal based on a capacitance measured by a capacitive sensor within the electronic device; generating an average capacitance signal by averaging the capacitance signal over a period of time; generating an intermediate signal comprising a difference between the capacitance signal and the average capacitance signal; generating at least one of: a don signal and a doff signal, wherein the don signal is generated subsequent to the electronic device changing state from a doffed state to a donned state, and the doff signal is generated subsequent to the electronic device changing state from a donned state to a doffed state, and wherein the don signal is based on a comparison of the intermediate signal to a don threshold and the doff signal is based on a comparison of the intermediate signal to a doff threshold; and setting the average capacitance signal to be equal to the capacitance signal when a don or doff signal is generated.
A flow passage unit detachably mounted on a pressure detection unit which detects a pressure to be transmitted to a pressure detection part, the flow passage unit comprising: a flexible flow passage part including a flexible flow passage which introduces liquid, flowing in the flexible flow passage part from an inflow port, to an outflow port, and which is made of a flexible material; a body portion configured to form a pressure transmitting space which surrounds an outer peripheral surface of the flexible flow passage part; a pressure transmitting part mounted on the body portion and having a thin-film shape, one surface of the pressure transmitting part facing the pressure transmitting space, and the other surface of the pressure transmitting part being capable of coming into contact with the pressure detection part; and a pressure transmission medium filled in the pressure transmitting space, and being non-compressible, wherein the flexible flow passage is a flow passage which has a predetermined inner diameter, and which extends in a straight line along an axis. a flexible flow passage part including a flexible flow passage which introduces liquid, flowing in the flexible flow passage part from an inflow port, to an outflow port, and which is made of a flexible material; a body portion configured to form a pressure transmitting space which surrounds an outer peripheral surface of the flexible flow passage part; a pressure transmitting part mounted on the body portion and having a thin-film shape, one surface of the pressure transmitting part facing the pressure transmitting space, and the other surface of the pressure transmitting part being capable of coming into contact with the pressure detection part; and a pressure transmission medium filled in the pressure transmitting space, and being non-compressible, wherein the flexible flow passage is a flow passage which has a predetermined inner diameter, and which extends in a straight line along an axis.
A garment (1, 12) comprising an outer fabric (8, 13, 14a, 14b, 15, 16a, 16b) and a lining (2, 3, 19, 20a, 20b), wherein the lining (2, 3, 19, 20a, 20b) is a stretch fabric, an elastic thread is partially inserted in the stretch fabric in a body width direction, and an elastic thread insertion portion contracts to make gathers, the stretch fabric is a one-way fabric that is stretchable in the body width direction, and wherein a plurality of elastic threads are inserted in the stretch fabric in parallel with each other, characterized in that each of the gathers in the lining (2, 3, 19, 20a, 20b) is a ridge with a width of 10 to 100 mm, and a distance between a top and a bottom of the ridge is 10 to 50 mm when the lining is laid on a horizontal surface, the number of the elastic threads inserted in parallel with each other is 2 to 25 per 1 m, and the relationship between the lining (2, 3, 19, 20a, 20b) and the outer fabric in the body width direction is defined such that a length of the lining (2, 3, 19, 20a, 20b) is 1.05 to 3 times as long as a length of the outer fabric (8, 13, 14a, 14b, 15, 16a, 16b). wherein the lining (2, 3, 19, 20a, 20b) is a stretch fabric, an elastic thread is partially inserted in the stretch fabric in a body width direction, and an elastic thread insertion portion contracts to make gathers, the stretch fabric is a one-way fabric that is stretchable in the body width direction, and wherein a plurality of elastic threads are inserted in the stretch fabric in parallel with each other, characterized in that each of the gathers in the lining (2, 3, 19, 20a, 20b) is a ridge with a width of 10 to 100 mm, and a distance between a top and a bottom of the ridge is 10 to 50 mm when the lining is laid on a horizontal surface, the number of the elastic threads inserted in parallel with each other is 2 to 25 per 1 m, and the relationship between the lining (2, 3, 19, 20a, 20b) and the outer fabric in the body width direction is defined such that a length of the lining (2, 3, 19, 20a, 20b) is 1.05 to 3 times as long as a length of the outer fabric (8, 13, 14a, 14b, 15, 16a, 16b).
An information processing program executed by a computer of an information processing apparatus for controlling an object displayed on a display device based on inputs from a movement sensor for detecting a movement and an input section (9, 72), wherein the movement sensor detects at least one of an acceleration and an angular velocity, the information processing program causing the computer to function as: display means (10, S1, S20) for displaying one of a plurality of areas (A, B, C) on an entire screen of the display device as a display area; object determination means (10, S6) for determining an object included in the display area as a target to be moved to another one of the plurality of areas based on an input from the input section; and display switching means (10, S9, S10, S91, S101, S13, S14, S20) for, when a predetermined movement wherein an acceleration or an angular velocity is greater than or equal to a predetermined value is detected by the movement sensor in a state where the object included in the display area being displayed on the display device has been determined as the target to be moved, switching the displaying of the area to the other one of the plurality of areas different from the display area currently displayed as a new display area, and displaying the other area on the display device together with the object determined as a target to be moved by the object determination means. display means (10, S1, S20) for displaying one of a plurality of areas (A, B, C) on an entire screen of the display device as a display area; object determination means (10, S6) for determining an object included in the display area as a target to be moved to another one of the plurality of areas based on an input from the input section; and display switching means (10, S9, S10, S91, S101, S13, S14, S20) for, when a predetermined movement wherein an acceleration or an angular velocity is greater than or equal to a predetermined value is detected by the movement sensor in a state where the object included in the display area being displayed on the display device has been determined as the target to be moved, switching the displaying of the area to the other one of the plurality of areas different from the display area currently displayed as a new display area, and displaying the other area on the display device together with the object determined as a target to be moved by the object determination means.
A saddle-ride type vehicle in which left and right radiators (40L, 40R) for cooling an engine are disposed on each of left and right sides of a vehicle body and oriented such that a longitudinal direction of the radiators (40L, 40R) extends along a vehicle front-rear direction, and a periphery of each of the radiators (40L, 40R) is covered by a respective cover member (69L, 69R) to cause traveling air flowing through an inner side of the vehicle body to pass through the respective radiator (40L, 40R) from the inner side of the vehicle body to an outer side of the vehicle body and thereby cool the radiator (40L, 40R), characterised by the saddle-ride type vehicle comprising air introduction paths (72L, 72R) which are respectively provided on an outer side of the vehicle body relative to each of the cover members (69L, 69R) and through which part of traveling air flowing along the outer side of the vehicle body is guided to a discharged-air outlet area (AL2, AR2) situated by the respective radiator (40L, 40R).