mhurhangee/patent-ind-claim-en huggingface dataset:
A charging pile, comprising a shell and a light-emitting member provided inside the shell, the charging pile further comprises a curved member arranged inside the shell, wherein the side, close to the light-emitting member , of the curved member is configured to reflect light emitted from the light-emitting member to one side of the shell in an alternately bright and dark manner; the side, close to the light-emitting member , of the curved member is provided with an uneven structure comprising raised structures and recessed structures spaced apart from each other, the curved member reflects the light emitted from the light-emitting member by means of the raised structures , and the recessed structures absorb the light emitted from the light-emitting member ; the shell comprises a front shell and a rear shell that are connected in a matching manner, the curved member is arranged on or integrally formed with the rear shell , the light-emitting member is arranged between the front shell and the curved member , and the curved member is capable of reflecting a part of the light emitted from the light-emitting member onto the front shell ; characterized in that the front shell comprises a light-transmissive front panel and a light-transmissive side panel , part of the light emitted from the light-emitting member is directly illuminated to the side panel and transmitted out of the side panel , and a further part of the light emitted from the light-emitting member is reflected to the front panel by means of the raised structures or absorbed by the recessed structures ; the front panel has the same shape as the curved member ; a charging gun socket is connected to a lower portion of the front panel . the shell comprises a front shell and a rear shell that are connected in a matching manner, the curved member is arranged on or integrally formed with the rear shell , the light-emitting member is arranged between the front shell and the curved member , and the curved member is capable of reflecting a part of the light emitted from the light-emitting member onto the front shell ; characterized in that the front shell comprises a light-transmissive front panel and a light-transmissive side panel , part of the light emitted from the light-emitting member is directly illuminated to the side panel and transmitted out of the side panel , and a further part of the light emitted from the light-emitting member is reflected to the front panel by means of the raised structures or absorbed by the recessed structures ; the front panel has the same shape as the curved member ; a charging gun socket is connected to a lower portion of the front panel .
A transmission method performed by a terminal, comprising: receiving downlink control information, DCI, wherein the DCI comprises indication information of N bits, the indication information of N bits is used to indicate whether the DCI triggers transmission of physical uplink shared channel with uplink shared channel, UL-SCH, data, and N is an integer greater than or equal to 1, and the terminal learns, according to the indication information, whether the DCI triggers the transmission of UL-SCH data; and performing transmission based on the indication information in the DCI; wherein the DCI further comprises an aperiodic channel state information, CSI, indication field of X bits, the aperiodic CSI indication field of X bits is used to indicate whether transmission of the aperiodic CSI is triggered, and X is an integer greater than or equal to 1; wherein the aperiodic CSI indication field of X bits indicates that the transmission of the aperiodic CSI is triggered, and the indication information of N bits indicates that the transmission of the UL-SCH data is triggered; or, the aperiodic CSI indication field of X bits indicates that the transmission of the aperiodic CSI is not triggered, and the indication information of N bits indicates that the transmission of the UL-SCH data is triggered; or, the aperiodic CSI indication field of X bits indicates that the transmission of the aperiodic CSI is triggered, and the indication information of N bits indicates that the transmission of the UL-SCH data is not triggered. receiving downlink control information, DCI, wherein the DCI comprises indication information of N bits, the indication information of N bits is used to indicate whether the DCI triggers transmission of physical uplink shared channel with uplink shared channel, UL-SCH, data, and N is an integer greater than or equal to 1, and the terminal learns, according to the indication information, whether the DCI triggers the transmission of UL-SCH data; and performing transmission based on the indication information in the DCI; wherein the DCI further comprises an aperiodic channel state information, CSI, indication field of X bits, the aperiodic CSI indication field of X bits is used to indicate whether transmission of the aperiodic CSI is triggered, and X is an integer greater than or equal to 1; wherein the aperiodic CSI indication field of X bits indicates that the transmission of the aperiodic CSI is triggered, and the indication information of N bits indicates that the transmission of the UL-SCH data is triggered; or, the aperiodic CSI indication field of X bits indicates that the transmission of the aperiodic CSI is not triggered, and the indication information of N bits indicates that the transmission of the UL-SCH data is triggered; or, the aperiodic CSI indication field of X bits indicates that the transmission of the aperiodic CSI is triggered, and the indication information of N bits indicates that the transmission of the UL-SCH data is not triggered.
Stereolithography machine comprising: • a support structure adapted to be arranged resting on a substantially horizontal support piane (π) having a reference direction (X); • a tank coupled with said support structure and provided with a bottom for containing a photosensitive liquid substance; • a support group coupled with said support structure through movement means for the movement above said tank of said support group according to a movement direction (Z) substantially perpendicular to said bottom ; • a modelling plate connected to said support group so that a modelling surface of said modelling plate faces, substantially in parallel position, said bottom to support a three-dimensional object; wherein the stereolithography machine is configured in such a way that at least during the execution of the stereolithography process for producing said three-dimensional object, said tank , said support group and said modelling plate are coupled with said support structure so that said bottom and said modelling surface lie on planes (π1, π2) intersecting said support plane (π) defining with said support plane (π) angles of intersection α1 and α2, respectively, and defining with said support plane (π) lines of intersection (γ1, γ2), respectively, orthogonal to said reference direction (X); characterised in that said tank is provided with a recirculation circuit configured to move said photosensitive liquid substance contained in said tank from a first end to a second end of said tank , both defined along said reference direction (X), to carry out inside the tank , during the stereolithography process, a continuous recirculation of the resin that, by gravity, flows out from the first end at a greater height, to the second end at a lower height, and the same resin is again brought by the recirculation circuit from the second end to the first end .. • a support structure adapted to be arranged resting on a substantially horizontal support piane (π) having a reference direction (X); • a tank coupled with said support structure and provided with a bottom for containing a photosensitive liquid substance; • a support group coupled with said support structure through movement means for the movement above said tank of said support group according to a movement direction (Z) substantially perpendicular to said bottom ; • a modelling plate connected to said support group so that a modelling surface of said modelling plate faces, substantially in parallel position, said bottom to support a three-dimensional object; wherein the stereolithography machine is configured in such a way that at least during the execution of the stereolithography process for producing said three-dimensional object, said tank , said support group and said modelling plate are coupled with said support structure so that said bottom and said modelling surface lie on planes (π1, π2) intersecting said support plane (π) defining with said support plane (π) angles of intersection α1 and α2, respectively, and defining with said support plane (π) lines of intersection (γ1, γ2), respectively, orthogonal to said reference direction (X);
A power supply , comprising: a first printed circuit board comprising a first voltage attenuator mounted thereon, the first voltage attenuator having a first output attenuator terminal and a plurality of first input attenuator terminals , wherein each first input attenuator terminal is configured to provide a different attenuated voltage at the first output attenuator terminal based on a first attenuator input voltage; and a second printed circuit board comprising a second voltage attenuator mounted thereon, the second voltage attenuator having a second output attenuator terminal and a plurality of second input attenuator terminals , wherein each second input attenuator terminal is configured to provide a different attenuated voltage at the second output attenuator terminal based on a second attenuator input voltage; wherein: the first voltage attenuator is substantially identical to the second voltage attenuator ; wherein the first and the second voltage attenuator each comprise a plurality of resistors , all resistors of the first and the second voltage attenuator, respectively, being coupled in series. a first printed circuit board comprising a first voltage attenuator mounted thereon, the first voltage attenuator having a first output attenuator terminal and a plurality of first input attenuator terminals , wherein each first input attenuator terminal is configured to provide a different attenuated voltage at the first output attenuator terminal based on a first attenuator input voltage; and a second printed circuit board comprising a second voltage attenuator mounted thereon, the second voltage attenuator having a second output attenuator terminal and a plurality of second input attenuator terminals , wherein each second input attenuator terminal is configured to provide a different attenuated voltage at the second output attenuator terminal based on a second attenuator input voltage; wherein: the first voltage attenuator is substantially identical to the second voltage attenuator ; wherein the first and the second voltage attenuator each comprise a plurality of resistors , all resistors of the first and the second voltage attenuator, respectively, being coupled in series. the first voltage attenuator is substantially identical to the second voltage attenuator ; wherein the first and the second voltage attenuator each comprise a plurality of resistors , all resistors of the first and the second voltage attenuator, respectively, being coupled in series.
Transmission with a first shaft (W1), a second shaft (W2), a third shaft (W3), a fourth shaft (W4), a fifth shaft (W5), a sixth shaft (W6), a first shifting element (K1), a second shifting element (K2), a third shifting element (A), a fourth shifting element (B), a fifth shifting element (C), a sixth shifting element (D), a seventh shifting element (E), an eighth shifting element (F), a ninth shifting element (G) and an output; wherein the first shaft (W1) and the third shaft (W3) are connectable to each other for conjoint rotation via the first shifting element (K1); wherein the first shaft (W1) and the second shaft (W2) are connectable to each other for conjoint rotation via the second shifting element (K2); wherein the second shaft (W2) and the fourth shaft (W4) are connectable to each other for a rotational action via the third shifting element (A); wherein the third shaft (W3) and the fourth shaft (W4) are in each case connectable to each other for conjoint rotation via the fourth shifting element (B) and the fifth shifting element (C); wherein the second shaft (W2) and the fifth shaft (W5) are connectable to each other for a rotational action via the sixth shifting element (D); wherein the fourth shaft (W4) and the fifth shaft (W5) are connectable to each other for a rotational action via the seventh shifting element (E); wherein the third shaft (W3) and the fifth shaft (W5) are connectable to each other for a rotational action via the eighth shifting element (F); wherein a fixed gear (F4) of the fourth shaft (W4) and a fixed gear (F5) of the fifth shaft (W5) are each connected to the output for a rotational action; wherein a first gearwheel of the sixth shaft (W6) and a fixed gear of the second shaft (W2) intermesh; wherein a second gearwheel of the sixth shaft (W6) and a fixed gear of the third shaft (W3) intermesh; wherein the first gearwheel is a free gear (L6) of the sixth shaft (W6) and the second gearwheel is a fixed gear (F6) of the sixth shaft (W6), or the first gearwheel is the fixed gear (F6) of the sixth shaft (W6) and the second gearwheel is the free gear (L6) of the sixth shaft (W6); and wherein the free gear (L6) of the sixth shaft (W6) and the sixth shaft (W6) are connectable to each other for conjoint rotation via the ninth shifting element (G), characterized in that a fixed gear (F2) of the second shaft (W2) and the first gearwheel of the sixth shaft (W6) intermesh; the fixed gear (F2) of the second shaft (W2) is connected for a rotational action to a first free gear (L4.1) of the fourth shaft (W4) and to a first free gear (L5.1) of the fifth shaft (W5); the first free gear (L4.1) of the fourth shaft (W4) and the fourth shaft (W4) are connectable to each other for conjoint rotation via the third shifting element (A); and the first free gear (L5.1) of the fifth shaft (W5) and the fifth shaft (W5) are connectable to each other for conjoint rotation via the sixth shifting element (D).
A tunable capacitor comprising: a variable capacitor unit placed between a first terminal and a second terminal, said first terminal being an RF+ terminal and said second terminal being an RF- terminal; and an ESD protection circuit; wherein the variable capacitor unit comprises: a first capacitor; and a switching transistor which switches on/off the connection of the first capacitor between the first terminal and the second terminal; and wherein when the switching transistor is in an on-state, a high signal H is applied to a gate terminal G, and wherein when the switching transistor is in an off-state, a low signal L is applied to the gate terminal G, characterized in that said ESD protection circuit is inserted either between the first terminal and a ground terminal or between the second terminal and the ground terminal, or is inserted both between the first terminal and a ground terminal and between the second terminal and the ground terminal, wherein when the switching transistor is in an on-state, the low signal L is applied to a body terminal B, a drain terminal D and a source terminal S, and wherein when the switching transistor is in an off-state, the low signal L is applied to the body terminal B, and the high signal H is applied to the drain terminal D and the source terminal S, and wherein each of the high signal H and the low signal L has a voltage greater than or equal to 0V. a variable capacitor unit placed between a first terminal and a second terminal, said first terminal being an RF+ terminal and said second terminal being an RF- terminal; and an ESD protection circuit; a first capacitor; and a switching transistor which switches on/off the connection of the first capacitor between the first terminal and the second terminal; and wherein when the switching transistor is in an on-state, a high signal H is applied to a gate terminal G, and wherein when the switching transistor is in an off-state, a low signal L is applied to the gate terminal G, characterized in that said ESD protection circuit is inserted either between the first terminal and a ground terminal or between the second terminal and the ground terminal, or is inserted both between the first terminal and a ground terminal and between the second terminal and the ground terminal, wherein when the switching transistor is in an on-state, the low signal L is applied to a body terminal B, a drain terminal D and a source terminal S, and wherein when the switching transistor is in an off-state, the low signal L is applied to the body terminal B, and the high signal H is applied to the drain terminal D and the source terminal S, and wherein each of the high signal H and the low signal L has a voltage greater than or equal to 0V.
A gas detector device with a Golay cell, the Golay cell comprising: a microphone having a front surface with a sound collecting aperture for receiving sound; a substrate ; a gas cavity formed in the substrate such that the gas cavity is in gas communication with the sound collecting aperture and the front surface forms a side surface of the gas cavity ; wherein the gas cavity includes a fill gas comprising at least one or more of hydrogen, argon, nitrogen, krypton, xenon, hydrocarbons, or fluorocarbons; wherein the gas cavity is sealed such that ambient gas cannot enter the gas cavity once it is sealed; and a window abutting the substrate to form a side surface of the gas cavity , characterized in that the substrate is a printed circuit board, and in that the microphone is electrically connected with the substrate . a microphone having a front surface with a sound collecting aperture for receiving sound; a substrate ; a gas cavity formed in the substrate such that the gas cavity is in gas communication with the sound collecting aperture and the front surface forms a side surface of the gas cavity ; wherein the gas cavity includes a fill gas comprising at least one or more of hydrogen, argon, nitrogen, krypton, xenon, hydrocarbons, or fluorocarbons; wherein the gas cavity is sealed such that ambient gas cannot enter the gas cavity once it is sealed; and a window abutting the substrate to form a side surface of the gas cavity , characterized in that the substrate is a printed circuit board, and in that the microphone is electrically connected with the substrate .
A computer implemented method for operating an autonomous vehicle travelling along a predetermined route using a control system , the predetermined route including a predetermined destination and a previously established time for arrival at the destination, the control system comprising a wireless transceiver and an electronic control unit , wherein the method comprises the steps of: - identifying (S1), using the electronic control unit , a service provider arranged within a predetermined distance from the vehicle , the service provider arranged to provide a service to the vehicle for extending a present operational duration, - establishing (S2), using the wireless transceiver , a networked communication with the service provider , - receiving (S3), at the electronic control unit , an offer from the service provider to provide the service, - estimating (S4), using the electronic control unit , a delay for amending the route to accept the offer from the service provider , and - deciding (S5), using a machine learning component comprised with the electronic control unit , if to accept the offer based on a combination of the present operational duration, the previously established time for arrival and the estimated delay, wherein the machine learning component has been previously trained on historical data relating to the operation of a population of vehicles. - identifying (S1), using the electronic control unit , a service provider arranged within a predetermined distance from the vehicle , the service provider arranged to provide a service to the vehicle for extending a present operational duration, - establishing (S2), using the wireless transceiver , a networked communication with the service provider , - receiving (S3), at the electronic control unit , an offer from the service provider to provide the service, - estimating (S4), using the electronic control unit , a delay for amending the route to accept the offer from the service provider , and - deciding (S5), using a machine learning component comprised with the electronic control unit , if to accept the offer based on a combination of the present operational duration, the previously established time for arrival and the estimated delay, wherein the machine learning component has been previously trained on historical data relating to the operation of a population of vehicles.
An enclosure for an open end of a reflector antenna, comprising: a substantially cylindrical shroud adapted to be coupled to a distal end of the reflector antenna in a way that the shroud is generally coaxial with a longitudinal axis of the reflector antenna ; characterized in that a retaining band coupled to an inner diameter of the shroud , proximate a distal end of the shroud ; the retaining band provided with a retaining groove open radially inward towards the longitudinal axis; wherein the retaining band is formed by a plurality of arc segments ; a bottom of the retaining groove extending radially outward beyond an outer diameter of the shroud ; and a radome seated within the retaining groove . a substantially cylindrical shroud adapted to be coupled to a distal end of the reflector antenna in a way that the shroud is generally coaxial with a longitudinal axis of the reflector antenna ; characterized in that a retaining band coupled to an inner diameter of the shroud , proximate a distal end of the shroud ; the retaining band provided with a retaining groove open radially inward towards the longitudinal axis; wherein the retaining band is formed by a plurality of arc segments ; a bottom of the retaining groove extending radially outward beyond an outer diameter of the shroud ; and a radome seated within the retaining groove .