mhurhangee/patent-ind-claim-en huggingface dataset:
A system comprising: an actuator ; a device being connected to said actuator and with said actuator being configured to move said device between a plurality of predetermined positions; a sensor being configured to contactlessly detect said device when said device is connected to said actuator ; and a controller in communication with said sensor and being configured to determine the predetermined position of said device based on contactless detection of said device by said sensor when said device is connected to said actuator ; and wherein said device is controlled to become undetectable by said sensor when said device disconnects due to mechanical failure from said actuator ; characterized in that said device further comprises at least a radio frequency (RF) coil ; said RF coil is tuned to a first predetermined frequency being within a detectable range of said sensor when said device is connected to said actuator ; and said device is controlled to become undetectable by being configured to intentionally destroy said RF coil when said device disconnects from said actuator . an actuator ; a device being connected to said actuator and with said actuator being configured to move said device between a plurality of predetermined positions; a sensor being configured to contactlessly detect said device when said device is connected to said actuator ; and a controller in communication with said sensor and being configured to determine the predetermined position of said device based on contactless detection of said device by said sensor when said device is connected to said actuator ; and wherein said device is controlled to become undetectable by said sensor when said device disconnects due to mechanical failure from said actuator ; characterized in that said device further comprises at least a radio frequency (RF) coil ; said RF coil is tuned to a first predetermined frequency being within a detectable range of said sensor when said device is connected to said actuator ; and said device is controlled to become undetectable by being configured to intentionally destroy said RF coil when said device disconnects from said actuator .
A radar apparatus for investigating fog and clouds in the atmosphere, having a transmitter for generating a frequency-modulated transmission signal being sent out via a transmitting antenna , having a receiver being supplied with an echo signal via a receiving antenna , which signal is generated by reflection of the transmission signal at liquid droplets and/or at ice crystals, and having a mixer , to which the received echo signal, amplified by a pre-amplifier , can be supplied and by which the amplified echo signal can be converted into a low-frequency received signal, as well as having a signal processor unit , with which information , resolved by altitude levels, about characteristics of fog and/or cloud phenomena occurring in the atmosphere can be generated, wherein, after a transmission phase , the transmission signal is interrupted for a transmission pause and the receiver is deactivated during the transmission phase and is only activated during the transmission pause , and wherein, using a signal generation unit , a sampling signal is generated and taken as the basis for controlling at least one electronic component selected from a group of electronic components including a power amplifier of the transmitter, a microwave switch of the receiver, and a low-frequency switch of the receiver, so that a time span formed by addition of transmission phase and transmission pause of the transmission signal is equal to a period of sampling of the echo and/or the received signal in the receiver, characterized in that the ratio of the transmission phase to the overall timespan formed by transmission phase and transmission pause is almost one, so that the transmission signal is approximated to a continuous wave signal.
An in vitro method of converting a population of cells, selected from the group consisting of: cardiomyocytes, other cells found in the heart, and other somatic cells not found in the heart, into cells suitable for generation of a biological pacemaker, the method comprising: • culturing the cells in vitro, wherein the cultured cells comprise quiescent cells that do not exhibit spontaneous repetitive electrical activity, and • administering one or more transcription factors comprising Tbx18 to the quiescent cells to generate converted cells wherein, the converted cells exhibit spontaneous repetitive electrical activity, and thus are capable of generating a biological pacemaker in vivo. • culturing the cells in vitro, wherein the cultured cells comprise quiescent cells that do not exhibit spontaneous repetitive electrical activity, and • administering one or more transcription factors comprising Tbx18 to the quiescent cells to generate converted cells
A composition comprising Megamonas funiformis AF24-28AC with a deposit number of GDMCC 60093 and Anaerofustis stercorihominis AM25-6 with a deposit number of GDMCC 60087.
A method of operation in a wireless communication device , the method comprising: performing signal quality measurements for two or more Radio Access Technologies, RATs (66-1, 66-2) that are associated with a wireless communication network and were the RATs are candidates for use in serving the wireless communication device ; characterized by determining RAT preferences with respect to the two or more RATs (66-1, 66-2), based on evaluating the signal quality measurements and further based on evaluating one or more operational attributes that correspond to relative costs or benefits for the wireless communication device when associated with operating the wireless communication device according to respective ones of the two or more RATs (66-1, 66-2); and indicating the RAT preferences to the wireless communication network , to influence a RAT selection decision made by the wireless communication network for the wireless communication device ; wherein indicating the RAT preferences comprises implicitly indicating the RAT preferences in a signal quality measurement report sent by the wireless communication device to the wireless communication network for the two or more RATs (66-1, 66-2); and wherein implicitly indicating the RAT preferences comprises biasing one or more signal quality measurements indicated in the signal quality measurement report, said biasing reflecting the RAT preferences by making a given RAT measurement look better or worse than it is, to make the RAT appear to the wireless communication network as being more favorable or less favorable for use by the wireless communication device . performing signal quality measurements for two or more Radio Access Technologies, RATs (66-1, 66-2) that are associated with a wireless communication network and were the RATs are candidates for use in serving the wireless communication device ; characterized by determining RAT preferences with respect to the two or more RATs (66-1, 66-2), based on evaluating the signal quality measurements and further based on evaluating one or more operational attributes that correspond to relative costs or benefits for the wireless communication device when associated with operating the wireless communication device according to respective ones of the two or more RATs (66-1, 66-2); and indicating the RAT preferences to the wireless communication network , to influence a RAT selection decision made by the wireless communication network for the wireless communication device ;
A bearing structural member , under an action of an external load, a maximum counter force provided by the bearing structural member is an own designed threshold value, namely when the external load is greater than the designed threshold value of the bearing structural member , the bearing structural member deforms, and provides a counter force equal to the designed threshold value; the bearing structural member comprising a reducing section , a sizing section connected to the reducing section and an assembling section for installing the bearing structural member , the bearing structural member being characterized in that - the reducing section is a structural part of which the cross section size changes along the axial direction, wherein the reducing section is a structure of which the cross section size is gradually increased along the axial direction, - the sizing section is a structural part of which the cross section size is equal along the axial direction, wherein the cross section size of the end portion of the reducing section is larger than that of the end, which is connected with the sizing section of the reducing section and - the assembling section is disposed at a lower end of the reducing section , and the structural size of the end, which is connected with the reducing section , of the assembling section is smaller than the size of the end portion structure of the reducing section . - the reducing section is a structural part of which the cross section size changes along the axial direction, wherein the reducing section is a structure of which the cross section size is gradually increased along the axial direction, - the sizing section is a structural part of which the cross section size is equal along the axial direction, wherein the cross section size of the end portion of the reducing section is larger than that of the end, which is connected with the sizing section of the reducing section and - the assembling section is disposed at a lower end of the reducing section , and the structural size of the end, which is connected with the reducing section , of the assembling section is smaller than the size of the end portion structure of the reducing section .
Process for preparing one or more polyether-modified polybutadienes, comprising the steps of: a) reacting at least one polybutadiene (A) with at least one epoxidizing reagent (B) to give at least one epoxy-functional polybutadiene (C); b) reacting the at least one epoxy-functional polybutadiene (C) with at least one hydroxy-functional compound (D) to give at least one hydroxy-functional polybutadiene (E); c) reacting the at least one hydroxy-functional polybutadiene (E) with at least one epoxy-functional compound (F) to give at least one polyether-modified polybutadiene (G). a) reacting at least one polybutadiene (A) with at least one epoxidizing reagent (B) to give at least one epoxy-functional polybutadiene (C); b) reacting the at least one epoxy-functional polybutadiene (C) with at least one hydroxy-functional compound (D) to give at least one hydroxy-functional polybutadiene (E); c) reacting the at least one hydroxy-functional polybutadiene (E) with at least one epoxy-functional compound (F) to give at least one polyether-modified polybutadiene (G).
An electric machine having an axis of rotation (R) and comprising: - a casing having a base wall which is transverse to the axis of rotation (R) and a side wail extending from the base wall ; - a stator , integral with the casing and provided with a plurality of pole pieces and at least one conductor wound around the pole pieces to define a plurality of coils constituting a stator winding ; the electric machine comprising a thermally conductive and electrically insulating annular heat sink made by moulding a plastic material and interposed between the stator and the base wall of the casing; the annular heat sink being abutted against the base wall and the coils being abutted against the annular heat sink , the annular heat sink defining a stop or abutment member for the stator against the casing , the electric machine being characterized in that the base wall has a projection projecting towards the inside of the casing , the projection being annular and having a top face in the shape of an annular crown, the heat sink having a face that is abutted against the face of the projection , the heat sink comprising an annular tooth extending from the face towards the base wall centring the heat sink on the projection such that heat flows from the stator to the projection , that is, to the casing by way of the heat sink , the projection being cooled by air circulating inside the electric machine. - a casing having a base wall which is transverse to the axis of rotation (R) and a side wail extending from the base wall ; - a stator , integral with the casing and provided with a plurality of pole pieces and at least one conductor wound around the pole pieces to define a plurality of coils constituting a stator winding ;
A compound having the general formula (III); for use in enhancing the effects of ionizing radiation therapy in a subject receiving said ionizing radiation therapy; wherein X and Y are independently C- R 3 or N; R 3 is H, OH, halogen, alkyl, alkoxy, alkenyl, alkynyl, cycloalkyl, cycloalkenyl, cycloalkynyl, aryl, heterocyclyl, or heteroaryl; R 1 and R 2 are, independently, H, OH, alkyl, alkoxy, alkenyl, alkynyl, cycloalkyl, cycloalkenyl, cycloalkynyl, aryl, heterocyclyl, heteroaryl, or a leaving group; wherein at least one of R 1 and R 2 is a leaving group; wherein each of the alkyl, alkoxy, alkenyl, alkynyl, cycloalkyl, cycloalkenyl, cycloalkynyl, aryl, heterocyclyl and heteroaryl moieties is optionally substituted; or a pharmaceutically acceptable salt thereof. X and Y are independently C- R 3 or N; R 3 is H, OH, halogen, alkyl, alkoxy, alkenyl, alkynyl, cycloalkyl, cycloalkenyl, cycloalkynyl, aryl, heterocyclyl, or heteroaryl; R 1 and R 2 are, independently, H, OH, alkyl, alkoxy, alkenyl, alkynyl, cycloalkyl, cycloalkenyl, cycloalkynyl, aryl, heterocyclyl, heteroaryl, or a leaving group; wherein at least one of R 1 and R 2 is a leaving group;
Lighting device for illuminating streets, roads or paths, comprising: - at least one light source comprising at least one light emitting diode; - at least one reflector comprising an essentially saddle-shaped reflection surface ; wherein the light source is arranged such that at least a part of the emitted light is directed to the reflection surface of the reflector ; and wherein the light is reflected by the reflection surface in such a way that a wide light distribution of the lighting device is provided at least in a direction parallel to a surface to be illuminated and perpendicular to a main axis of the reflection surface , wherein the reflection surface of the reflector comprises at least two minima provided at an angle between +/- 50° and +/- 90° DEG with respect to the main axis of the reflection surface . - at least one light source comprising at least one light emitting diode; - at least one reflector comprising an essentially saddle-shaped reflection surface ; wherein the light source is arranged such that at least a part of the emitted light is directed to the reflection surface of the reflector ; and wherein the light is reflected by the reflection surface in such a way that a wide light distribution of the lighting device is provided at least in a direction parallel to a surface to be illuminated and perpendicular to a main axis of the reflection surface , wherein the reflection surface of the reflector comprises at least two minima provided at an angle between +/- 50° and +/- 90° DEG with respect to the main axis of the reflection surface .
A compound represented by formula : wherein, in formula , R 1 and R 2 are independently alkyl having 1 to 15 carbons, and in the alkyl, at least one of -CH 2 - may be replaced by -O-, at least one of -(CH 2 ) 2 - may be replaced by -CH=CH-; ring A 1 and ring A 2 are independently 1,4-cyclohexylene, 1,4-cyclohexenylene, 1,4-phenylene, 1,3-dioxane-2,5-diyl or tetrahydropyran-2,5-diyl, and in the rings, at least one of hydrogen may be replaced by halogen; Z 1 and Z 2 are independently a single bond, -(CH 2 ) 2 - -CH 2 O-, or -OCH 2 -; and a and b are independently 0, or 1 , and a sum of a and b is 1. R 1 and R 2 are independently alkyl having 1 to 15 carbons, and in the alkyl, at least one of -CH 2 - may be replaced by -O-, at least one of -(CH 2 ) 2 - may be replaced by -CH=CH-; ring A 1 and ring A 2 are independently 1,4-cyclohexylene, 1,4-cyclohexenylene, 1,4-phenylene, 1,3-dioxane-2,5-diyl or tetrahydropyran-2,5-diyl, and in the rings, at least one of hydrogen may be replaced by halogen; Z 1 and Z 2 are independently a single bond, -(CH 2 ) 2 - -CH 2 O-, or -OCH 2 -; and a and b are independently 0, or 1 , and a sum of a and b is 1.
A method of forming a light emitting device, the method comprising: providing a first wavelength converting layer and a second wavelength converting layer mounted on a film, each wavelength converting layer comprising a bottom surface attached to the film, an oppositely positioned top surface, and sidewalls connecting the top and bottom surfaces, the wavelength converting layers mounted to the film with a sidewall of the first wavelength converting layer and an adjacent sidewall of the second wavelength converting layer spaced apart from each other by a distance Y; wherein: providing the first wavelength converting layer and the second wavelength converting layer mounted on the film comprises: mounting the first wavelength converting layer and the second wavelength converting layer on the film with the spacing between the adjacent sidewalls a distance X less than Y ; and after mounting the first wavelength converting layer and the second wavelength converting layer on the film, expanding the film to increase the spacing between the first wavelength converting layer and the second wavelength converting layer to the distance Y ; applying an optical isolation material within at least part of the expanded space between the adjacent sidewalls of the first wavelength converting layer and the second wavelength converting layer ; and after applying the optical isolation material contracting the film to reduce the spacing between the adjacent sidewalls to a distance Z less than Y . mounting the first wavelength converting layer and the second wavelength converting layer on the film with the spacing between the adjacent sidewalls a distance X less than Y ; and after mounting the first wavelength converting layer and the second wavelength converting layer on the film, expanding the film to increase the spacing between the first wavelength converting layer and the second wavelength converting layer to the distance Y ; applying an optical isolation material within at least part of the expanded space between the adjacent sidewalls of the first wavelength converting layer and the second wavelength converting layer ; and after applying the optical isolation material contracting the film to reduce the spacing between the adjacent sidewalls to a distance Z less than Y .
A wound dressing for applying topical negative pressure at a wound site, comprising: a gas impermeable cover layer comprising an orifice; an absorbent layer for absorbing wound exudate underlying the cover layer wherein the absorbent layer comprises superabsorbent material; a liquid and gas permeable transmission layer underlying the cover layer; a lower pressure sensitive adhesive layer to adhere the wound dressing to skin around the wound site; and a suction port sealed to the cover layer around a perimeter of the orifice and configured to communicate negative pressure through the orifice, the suction port comprising a connector portion for connecting the suction port to a source of negative pressure and a liquid impermeable gas permeable filter element arranged to prevent a liquid from entering the connector portion; wherein the suction port is situated closer to one end of the dressing, contrasted with a central position and wherein said suction port is manufactured from a transparent material such that a visual check can be made by a user for the ingress of wound exudate into the suction port. a gas impermeable cover layer comprising an orifice; an absorbent layer for absorbing wound exudate underlying the cover layer wherein the absorbent layer comprises superabsorbent material; a liquid and gas permeable transmission layer underlying the cover layer; a lower pressure sensitive adhesive layer to adhere the wound dressing to skin around the wound site; and a suction port sealed to the cover layer around a perimeter of the orifice and configured to communicate negative pressure through the orifice, the suction port comprising a connector portion for connecting the suction port to a source of negative pressure and a liquid impermeable gas permeable filter element arranged to prevent a liquid from entering the connector portion; wherein the suction port is situated closer to one end of the dressing, contrasted with a central position and wherein said suction port is manufactured from a transparent material such that a visual check can be made by a user for the ingress of wound exudate into the suction port.
Method for distinguishing traffic, implemented by a gateway (BX, Tcx, ANT) between a first network (LAN, NET1) and a second network (NET1, NET2), said method comprising the following steps: - inserting (E300, F300) marking information (iMRK1, iMRK2) into a field of the header of a packet (P, Q) transmitted by said gateway and intended to be routed to said second network (NET1, NET2), said marking information (iMRK1, iMRK2) allowing a device (D) of a network (NET) comprising the second network (NET1, NET2) to distinguish whether: - said packet (Q) was generated (F200) by said gateway, or whether - said packet (P) was generated (E100) by a terminal (TRM, Tcx) of said first network (LAN, NET1) connected to said gateway; and - sending (E400, F400) said packet (P, Q) to said second network (NET1, NET2). - inserting (E300, F300) marking information (iMRK1, iMRK2) into a field of the header of a packet (P, Q) transmitted by said gateway and intended to be routed to said second network (NET1, NET2), said marking information (iMRK1, iMRK2) allowing a device (D) of a network (NET) comprising the second network (NET1, NET2) to distinguish whether: - said packet (Q) was generated (F200) by said gateway, or whether - said packet (P) was generated (E100) by a terminal (TRM, Tcx) of said first network (LAN, NET1) connected to said gateway; and - sending (E400, F400) said packet (P, Q) to said second network (NET1, NET2). - said packet (Q) was generated (F200) by said gateway, or whether - said packet (P) was generated (E100) by a terminal (TRM, Tcx) of said first network (LAN, NET1) connected to said gateway; and - sending (E400, F400) said packet (P, Q) to said second network (NET1, NET2).