mhurhangee/patent-ind-claim-en huggingface dataset:
A composition comprising a biologically active material and an inorganic oxide material, wherein the inorganic oxide material comprises a non-ordered porous material comprising: pores having a mean pore diameter (APD), as calculated, assuming cylindrical pores, using the equation pore diameter (Angstroms) = 40000 x PV / SA, of 2.5 nm to 15.0 nm; pores having a pore volume (PV), as measured by nitrogen porosimetry according to ASTM D 4222083, of 0.5 cm 3 /g or greater; and a BET surface area (SA), as measured by nitrogen adsorption according to ASTM D 3663-84 or DIN 66131, of 300 m 2 /g or greater, the biologically active material being incorporated into the inorganic oxide material. pores having a mean pore diameter (APD), as calculated, assuming cylindrical pores, using the equation pore diameter (Angstroms) = 40000 x PV / SA, of 2.5 nm to 15.0 nm; pores having a pore volume (PV), as measured by nitrogen porosimetry according to ASTM D 4222083, of 0.5 cm 3 /g or greater; and a BET surface area (SA), as measured by nitrogen adsorption according to ASTM D 3663-84 or DIN 66131, of 300 m 2 /g or greater, the biologically active material being incorporated into the inorganic oxide material.
A drive device for a vertical stirred mill , said device comprising: - a main housing , - a motor ; and - an element rotating relative to the main housing, around the first vertical axis , the rotary element being able to be rotated by said motor; the rotary element including a rotary plate substantially perpendicular to the first axis; and a cylindrical part arranged along the first axis, an upper end of said cylindrical part being secured to the rotary plate , characterized in that a lower end of said cylindrical part is secured or able to be secured to the rotary milling tool of the vertical stirred mill, and in that the main housing comprises an axial stop able to guide the rotary element axially and limit a downward axial movement of said rotary element, the rotary plate being arranged bearing on said axial stop, the axial stop thus being able to react the axial forces exerted on the rotary milling tool during operation of the vertical stirred mill. - a main housing , - a motor ; and - an element rotating relative to the main housing, around the first vertical axis , the rotary element being able to be rotated by said motor;
Method for producing a connection between an insert and a polymer which at least partially surrounds the insert, wherein a monomer is brought into contact with the insert (1, 1', 1") and then polymerized to form the polymer , wherein the temperature T E of the insert (1, 1', 1") is increased at least in the short term at least to the maximum temperature T M reached by the monomer during its exothermic polymerization to form the polymer , and/or that ensures that heat always flows from the insert (1, 1', 1") to the monomer , wherein an at least partially electrically conductive or semiconductive insert (1, 1', 1") is selected, characterized in that the insert (1, 1', 1") is heated resistively, and/or inductively, by having a current I applied to it.
A system for controlling a low-voltage electrical panel comprising: - a plurality of functional units each capable of being inserted into a given location of said low-voltage electrical panel and of being removed therefrom, each of said functional units being connected upstream to a power supply and downstream to an element to be powered and comprising a cut-off member , and - a single supervisor connected to said functional units and being capable of detecting a removal or an insertion of a functional unit in said low-voltage electrical panel, where each of said functional units comprises: - a monitoring module , - means of communication with said supervisor , characterised in that the monitoring module comprises at least one sensor and a memory containing at least identification information of said functional unit and setting information of said functional unit , and in that said supervisor stores a copy of said setting information associated with said identification information, said supervisor being capable, in the case of insertion of a functional unit in a given location of said low-voltage electrical panel , of detecting whether said functional unit is associated with said given location, depending on said identification information, and of transmitting the corresponding setting information to said monitoring module , so as to update it if said information present in the memory of said monitoring module does not correspond to that stored by the supervisor . - a plurality of functional units each capable of being inserted into a given location of said low-voltage electrical panel and of being removed therefrom, each of said functional units being connected upstream to a power supply and downstream to an element to be powered and comprising a cut-off member , and - a single supervisor connected to said functional units and being capable of detecting a removal or an insertion of a functional unit in said low-voltage electrical panel, where each of said functional units comprises: - a monitoring module , - means of communication with said supervisor , characterised in that the monitoring module comprises at least one sensor and a memory containing at least identification information of said functional unit and setting information of said functional unit , and - a monitoring module , - means of communication with said supervisor , characterised in that the monitoring module comprises at least one sensor and a memory containing at least identification information of said functional unit and setting information of said functional unit , and in that said supervisor stores a copy of said setting information associated with said identification information, said supervisor being capable, in the case of insertion of a functional unit in a given location of said low-voltage electrical panel , of detecting whether said functional unit is associated with said given location, depending on said identification information, and of transmitting the corresponding setting information to said monitoring module , so as to update it if said information present in the memory of said monitoring module does not correspond to that stored by the supervisor .
A diode-included connector comprising: a first diode (602-1) and a second diode (602-2), each having an anode and a cathode; housing containing the first and second diodes (602-1, 602-2); a first electrical connection (608-1) which connects to the anode of the first diode (602-1) and to the cathode of the second diode (602-2) within the housing; a second electrical connection (608-2) which connects to the cathode of the first diode (602-1) within the housing; a third electrical connection (608-3) which connects to the anode of the second diode (602-2) within the housing; and a first port (614-1) for electrically connecting from outside the housing to the first and second electrical connections (608-1, 608-2); and a second port (614-2) for electrically connecting from outside the housing to the third electrical connection (608-3). a first diode (602-1) and a second diode (602-2), each having an anode and a cathode; housing containing the first and second diodes (602-1, 602-2); a first electrical connection (608-1) which connects to the anode of the first diode (602-1) and to the cathode of the second diode (602-2) within the housing; a second electrical connection (608-2) which connects to the cathode of the first diode (602-1) within the housing; a third electrical connection (608-3) which connects to the anode of the second diode (602-2) within the housing; and a first port (614-1) for electrically connecting from outside the housing to the first and second electrical connections (608-1, 608-2); and a second port (614-2) for electrically connecting from outside the housing to the third electrical connection (608-3).
An optical sensor module for detecting and/or measuring physiological information from a subject, wherein the optical sensor module is configured to be integrated within a wearable device, the optical sensor module comprising: a base comprising an optical source and an optical detector adjacent the optical source ; a housing secured to the base and enclosing the optical source and optical detector, wherein the housing is configured to protect the optical source and the optical detector from ambient interference, wherein the housing comprises at least one window (W) in optical communication with the optical source and the optical detector ; and first and second light guides supported by the housing , wherein the first light guide comprises a proximal end in optical communication with the optical source and a distal end , wherein the second light guide comprises a proximal end in optical communication with the optical detector adjacent the optical source and a distal end , wherein the first and second light guides define respective first and second axial directions, wherein the first and second axial directions diverge outwardly from the housing , and wherein the first axial direction of the first light guide has an angle (a1) relative to a plane defined by the optical source that is less than ninety degrees, wherein the second axial direction of the second light guide has an angle (a2) relative to a plane defined by the optical detector that is less than ninety degrees. a base comprising an optical source and an optical detector adjacent the optical source ; a housing secured to the base and enclosing the optical source and optical detector, wherein the housing is configured to protect the optical source and the optical detector from ambient interference, wherein the housing comprises at least one window (W) in optical communication with the optical source and the optical detector ; and first and second light guides supported by the housing , wherein the first light guide comprises a proximal end in optical communication with the optical source and a distal end , wherein the second light guide comprises a proximal end in optical communication with the optical detector adjacent the optical source and a distal end , wherein the first and second light guides define respective first and second axial directions, wherein the first and second axial directions diverge outwardly from the housing , and wherein the first axial direction of the first light guide has an angle (a1) relative to a plane defined by the optical source that is less than ninety degrees, wherein the second axial direction of the second light guide has an angle (a2) relative to a plane defined by the optical detector that is less than ninety degrees.
A magnetic field generating apparatus for biostimulation, the apparatus comprising a magnetic field generating unit (M, M2) comprising: a U-shaped core having two side portions opposite to and parallel with each other, wherein each side portion has a distal end; and coils having windings wound around the core , wherein the U-shaped core has a pair of extended portions extending from the respective distal end of the two side portions and facing each other such that the pair of extended portions forms a gap-portion (G) therebetween, characterized in that the windings of the coils are wound around the two opposite side portions , respectively such that side surfaces of the respective coils directly facing each other are in close contact, and end portions of the coils on the gap-portion (G) side are arranged adjacent with the inside surfaces of the pair of extended portions . a U-shaped core having two side portions opposite to and parallel with each other, wherein each side portion has a distal end; and coils having windings wound around the core , wherein the U-shaped core has a pair of extended portions extending from the respective distal end of the two side portions and facing each other such that the pair of extended portions forms a gap-portion (G) therebetween, characterized in that the windings of the coils are wound around the two opposite side portions , respectively such that side surfaces of the respective coils directly facing each other are in close contact, and end portions of the coils on the gap-portion (G) side are arranged adjacent with the inside surfaces of the pair of extended portions .
Handheld machine tool for processing work pieces, having a housing in which is accommodated a motor driving a rotor shaft , and having an air guidance region formed in the housing for supplying cool air to the motor along a main flow direction oriented substantially parallel to a motor longitudinal axis , wherein the air guidance region is limited at one end by at least one air inlet and at the other end by at least one air outlet for discharging the cool air out of the housing , wherein in the air guidance region is arranged a separator for dividing the cool air into an outer partial airflow flowing around the motor on the outer circumference and into an inner partial airflow flowing through the motor , and that the separator formed as a separator disc and arranged in main flow direction before the motor is configured such that the degree of contamination of the outer partial airflow is greater than the degree of contamination of the inner partial airflow , characterised in that the housing is formed in multiple parts and includes a motor housing , accommodating the motor , which on its end face facing away from the motor has at least one inner opening and at least one outer opening which are radially distanced from one another.
A method for reporting a blind decoding capability, performed by a user equipment, UE, wherein that the method comprises: determining blind decoding capability information of the UE, wherein the blind decoding capability information of the UE comprises: a maximum number of blind decodings that the UE is capable to process per time unit; reporting the blind decoding capability information of the UE to a base station; wherein the determining the blind decoding capability information of the UE comprises: determining the blind decoding capability information of the UE at different aggregation levels of a downlink control channel, respectively; wherein the UE has different blind decoding capability information at the different aggregation levels of the downlink control channel. determining blind decoding capability information of the UE, wherein the blind decoding capability information of the UE comprises: a maximum number of blind decodings that the UE is capable to process per time unit; reporting the blind decoding capability information of the UE to a base station; wherein the determining the blind decoding capability information of the UE comprises: determining the blind decoding capability information of the UE at different aggregation levels of a downlink control channel, respectively; wherein the UE has different blind decoding capability information at the different aggregation levels of the downlink control channel.
An assembly comprising a self-expanding stent-valve for replacing an aortic valve, and a delivery catheter therefore; wherein the stent comprises first and second portions configured for engagement, in use, with opposite sides of a native aortic valve annulus; the delivery catheter comprising: a distal end and a proximal end, the distal end including a stent attachment region adapted to receive the stent , a handle at its proximal end and at least one sheath for at least partially circumferentially covering said stent such as to retain it in a collapsed configuration, the sheath being coupled at its proximal end to an actuator located on said handle for actuating movement of the sheath , the actuator comprising a manual rotary control , wherein the handle further comprises indicia for indicating sheath displacement with respect to a first step for deploying the first stent portion and a second step for deploying the second stent portion; and tactile feedback means to indicate when the distal end of the sheath has reached a defined position on the stent during proximal and/or distal movement of said sheath along said stent . wherein the stent comprises first and second portions configured for engagement, in use, with opposite sides of a native aortic valve annulus; the delivery catheter comprising: a distal end and a proximal end, the distal end including a stent attachment region adapted to receive the stent , a handle at its proximal end and at least one sheath for at least partially circumferentially covering said stent such as to retain it in a collapsed configuration, the sheath being coupled at its proximal end to an actuator located on said handle for actuating movement of the sheath , the actuator comprising a manual rotary control , wherein the handle further comprises indicia for indicating sheath displacement with respect to a first step for deploying the first stent portion and a second step for deploying the second stent portion; and tactile feedback means to indicate when the distal end of the sheath has reached a defined position on the stent during proximal and/or distal movement of said sheath along said stent . a distal end and a proximal end, the distal end including a stent attachment region adapted to receive the stent , a handle at its proximal end and at least one sheath for at least partially circumferentially covering said stent such as to retain it in a collapsed configuration, the sheath being coupled at its proximal end to an actuator located on said handle for actuating movement of the sheath , the actuator comprising a manual rotary control , wherein the handle further comprises indicia for indicating sheath displacement with respect to a first step for deploying the first stent portion and a second step for deploying the second stent portion; and tactile feedback means to indicate when the distal end of the sheath has reached a defined position on the stent during proximal and/or distal movement of said sheath along said stent .
An electrode array for neuromodulation, comprising a first electrode section (S1) with more than two electrodes being arranged parallel, further comprising a second electrode section (S2) with more electrodes than in the first electrode section (S1), characterised in that the electrodes of the first electrode section (S1) are denser packed compared to the electrodes of the second electrode section (S2), and the electrodes in the second electrode section (S2) are arranged symmetrically with respect to the longitudinal axis and transversal offset to each other.
A determination program causing a computer to execute a process for generating a superiority index for a team during a game comprising: obtaining a plurality of images which are captured in different areas of a field, where first team's territory of a first team is separated from second team's territory of a second team by using a center line; detecting the center line on the basis of each image; detecting, for each image of the plurality of images, a distance between the position of the center line and a reference position; detecting, for each image of the plurality of images, which one of the territories separated by using the detected center line, mainly appears in the respective image; storing as a record in a table, for each of the plurality of images, the detected distance in association with the territory which mainly appears in the respective image; creating a first index for the first team based on the number of the records stored in association with the first team's territory, where the distance is larger than zero; creating a second index for the second team based on the number of the records stored in association with the second team's territory, where the distance is larger than zero; and outputting the first index and the second index as the superiority indices for the first and the second team respectively. obtaining a plurality of images which are captured in different areas of a field, where first team's territory of a first team is separated from second team's territory of a second team by using a center line; detecting the center line on the basis of each image; detecting, for each image of the plurality of images, a distance between the position of the center line and a reference position; detecting, for each image of the plurality of images, which one of the territories separated by using the detected center line, mainly appears in the respective image; storing as a record in a table, for each of the plurality of images, the detected distance in association with the territory which mainly appears in the respective image; creating a first index for the first team based on the number of the records stored in association with the first team's territory, where the distance is larger than zero; creating a second index for the second team based on the number of the records stored in association with the second team's territory, where the distance is larger than zero; and outputting the first index and the second index as the superiority indices for the first and the second team respectively.
Method for separating a first gas mixture (A,C) of a first gas (A) and at least one second gas (C) into a first gas (A) and at least one second gas (C) according to a pressure swing adsorption process (PSA process), comprising of adsorbing at least the second gas (C) in an adsorption mass provided in each vessel of a number of vessels , wherein the adsorption strength for the first gas (A) is smaller than the adsorption strength for the second gas (C) and wherein each vessel has at least one inlet and one outlet , wherein in each of said vessels the following steps are to be distinguished of: (i) admitting the gas mixture for a predetermined period into a first vessel via an inlet of said vessel , and discharging a separated product gas via an outlet of said vessel , followed by admitting the gas mixture into a second vessel while continuing the discharge of the product gas from the first vessel , followed by (ii) discharging purge gas from the first vessel via its outlet , (iii) discharging off-gas from the first vessel via its inlet , (iv) admitting purge gas into the first vessel via its outlet , and discharging off-gas from said vessel via its inlet , and (v) admitting a separated product gas into the first vessel until the pressure in the first vessel has reached a predetermined value, after which admission of the gas mixture into the first vessel begins, and the steps are repeated beginning with step (i), characterized in that prior to step (i) a third gas (B) is added to the gas mixture, wherein the adsorption strength of the third gas is greater than the adsorption strength of the first gas (A) and smaller than the adsorption strength of the second gas (C). (i) admitting the gas mixture for a predetermined period into a first vessel via an inlet of said vessel , and discharging a separated product gas via an outlet of said vessel , followed by admitting the gas mixture into a second vessel while continuing the discharge of the product gas from the first vessel , followed by (ii) discharging purge gas from the first vessel via its outlet , (iii) discharging off-gas from the first vessel via its inlet , (iv) admitting purge gas into the first vessel via its outlet , and discharging off-gas from said vessel via its inlet , and (v) admitting a separated product gas into the first vessel until the pressure in the first vessel has reached a predetermined value, after which admission of the gas mixture into the first vessel begins, and the steps are repeated beginning with step (i), characterized in that prior to step (i) a third gas (B) is added to the gas mixture, wherein the adsorption strength of the third gas is greater than the adsorption strength of the first gas (A) and smaller than the adsorption strength of the second gas (C).