mhurhangee/patent-ind-claim-en huggingface dataset:
Method of calculating a surgical intervention plan, the method comprising the steps of receiving surface data of a patient's surface (S1), receiving data about a planned surgical intervention (S2), the data including data representing a targeted object, creating a surface representation of a part of the patient's body based on the received data of the patient's surface (S3), selecting a first surgical method out of a plurality of parameterized surgical methods stored in a database (S4), adapting geometrical parameters of a surgical intervention plan based on i) the selected first surgical method, ii) the data of the planned surgical intervention and iii) the surface representation, thereby calculating an adapted surgical intervention plan (S5), and displaying the adapted surgical intervention plan to a user (S6), further comprising the steps of sending an activation signal to a remotely activatable marking pen thereby activating the pen based on the adapted surgical intervention plan; measuring the position of the pen on a surface of the patient, and activating the pen if the measured position of the pen corresponds to a line of the adapted surgical intervention plan.
A population of silver nanowires exhibiting a main peak assigned to a crystal plane in an X-ray diffraction spectrum thereof and having a 2θ full width at half maximum of the main peak after Gaussian fitting of less than 0.38 degrees; wherein at least one of the silver nanowires among the population of silver nanowires has a crystal plane as measured by cross-sectional transmission electron microscope; and the crystal plane has a pentagonal shape defined by five triangular surfaces and comprises a twin boundary.
A process for providing a fiber cement product, comprising the steps of • Providing an uncured fiber cement product; • Curing said uncured fiber cement product; • Drying said cured fiber cement product; • Abrasive blasting at least part of the surface of said dried fiber cement product, characterized in that the uncured fiber cement product is provided using a Hatschek process and drying is carried out to obtain a humidity of said cured fiber cement product being less than or equal to about 8%w. • Providing an uncured fiber cement product; • Curing said uncured fiber cement product; • Drying said cured fiber cement product; • Abrasive blasting at least part of the surface of said dried fiber cement product, characterized in that the uncured fiber cement product is provided using a Hatschek process and drying is carried out to obtain a humidity of said cured fiber cement product being less than or equal to about 8%w.
A computer-implemented method of providing a security layer, discrete from a messaging application, comprising: generating a sensitive message; and communicating with a backend server to negotiate a security key, the communicating includes negotiating a policy and an ID of the sensitive message with the backend server, and the sensitive message includes header information for accessing the backend server, the method further comprising: encrypting the sensitive message to produce an encrypted message; embedding the encrypted message in an image via steganography for securing the sensitive message; and sending the image via the messaging application, wherein the messaging application is operable to send a message including the image via a network interface. generating a sensitive message; and communicating with a backend server to negotiate a security key, the communicating includes negotiating a policy and an ID of the sensitive message with the backend server, and the sensitive message includes header information for accessing the backend server, the method further comprising: encrypting the sensitive message to produce an encrypted message; embedding the encrypted message in an image via steganography for securing the sensitive message; and sending the image via the messaging application, wherein the messaging application is operable to send a message including the image via a network interface. encrypting the sensitive message to produce an encrypted message; embedding the encrypted message in an image via steganography for securing the sensitive message; and sending the image via the messaging application, wherein the messaging application is operable to send a message including the image via a network interface.
An endoscope storage system, the system comprising a cover for an endoscope storage tray, the cover comprising a flexibly deformable sheet material substantially impermeable to fluids, the flexibly deformable sheet material configured to be temporarily secured to the tray so as to cover an endoscope storage compartment of the tray, the tray comprising an inlet, wherein the flexibly deformable material is configured to partially enclose the tray; a one-way valve attached to the flexibly deformable sheet material, the one-way valve configured to release air flowing from the endoscope storage compartment of the tray to the cover and is controlled by a pressure applied to the one-way valve by a forced filtered air source which is attached to the inlet; and a liner configured to engage the endoscope storage compartment of the tray.
A luggage shell fabrication method, comprising the steps of: A) making a thermoplastic sheet into a shell using a vacuum molding method, said shell comprising an outer surface , an opposing inner surface and an accommodation chamber surrounded by said inner surface ; B) providing a heating mold that defines a female mold area and an inner wall surface in said female mold area , and then placing said shell in said female mold area to attach said outer surface of said shell to said inner wall surface in said female mold area ; C) applying a thermosetting plastic layer that is in a molten status to said inner surface of said shell ; and D) placing an inflatable airbag in said accommodation chamber of said shell and then inflating said inflatable airbag against said thermosetting plastic layer and simultaneously operating said heating mold to heat said shell and said thermosetting plastic layer in said female mold area for causing said shell and said thermosetting plastic layer to be combined with each other to form a luggage shell . A) making a thermoplastic sheet into a shell using a vacuum molding method, said shell comprising an outer surface , an opposing inner surface and an accommodation chamber surrounded by said inner surface ; B) providing a heating mold that defines a female mold area and an inner wall surface in said female mold area , and then placing said shell in said female mold area to attach said outer surface of said shell to said inner wall surface in said female mold area ; C) applying a thermosetting plastic layer that is in a molten status to said inner surface of said shell ; and D) placing an inflatable airbag in said accommodation chamber of said shell and then inflating said inflatable airbag against said thermosetting plastic layer and simultaneously operating said heating mold to heat said shell and said thermosetting plastic layer in said female mold area for causing said shell and said thermosetting plastic layer to be combined with each other to form a luggage shell .
A hydraulic drive system for a construction material pump , the hydraulic drive system having: - a hydraulic circuit for hydraulic fluid (HF), - a feed pump which is designed for feeding hydraulic fluid (HF) into the hydraulic circuit , characterised by - at least one controllable pressure limiting valve unit which is designed for variably setting a limit pressure (p30, p31/32) of hydraulic fluid (HF) of at least one section of the hydraulic circuit within a pressure range (pmin, pmax), - wherein the at least one pressure limiting valve unit has a controllable proportional pressure limiting valve which is designed for continuously setting the limit pressure (p30, p31/32) of hydraulic fluid (HF) of the at least one section of the hydraulic circuit within the pressure range (pmin, pmax), and - a control unit which is designed to control the pressure limiting valve unit in a manner dependent on at least one operating parameter (BP) of the hydraulic drive system and/or of hydraulic fluid (HF) such that the pressure limiting valve unit sets the limit pressure (p30, p31/32) of the section of the hydraulic circuit , - wherein the control unit is designed to control the proportional pressure limiting valve in a manner dependent on the at least one operating parameter (BP) such that the proportional pressure limiting valve sets the limit pressure (p30, p31/32) of the section of the hydraulic circuit . - a hydraulic circuit for hydraulic fluid (HF), - a feed pump which is designed for feeding hydraulic fluid (HF) into the hydraulic circuit , characterised by - at least one controllable pressure limiting valve unit which is designed for variably setting a limit pressure (p30, p31/32) of hydraulic fluid (HF) of at least one section of the hydraulic circuit within a pressure range (pmin, pmax), - wherein the at least one pressure limiting valve unit has a controllable proportional pressure limiting valve which is designed for continuously setting the limit pressure (p30, p31/32) of hydraulic fluid (HF) of the at least one section of the hydraulic circuit within the pressure range (pmin, pmax), and - a control unit which is designed to control the pressure limiting valve unit in a manner dependent on at least one operating parameter (BP) of the hydraulic drive system and/or of hydraulic fluid (HF) such that the pressure limiting valve unit sets the limit pressure (p30, p31/32) of the section of the hydraulic circuit , - wherein the control unit is designed to control the proportional pressure limiting valve in a manner dependent on the at least one operating parameter (BP) such that the proportional pressure limiting valve sets the limit pressure (p30, p31/32) of the section of the hydraulic circuit .
An absorbent article selected from a sanitary napkin, an incontinence pad, and a pantyliner, having a body-facing surface and a garment-facing surface, said absorbent article also having a longitudinal axis (I) and a transversal axis (II) and said article also having a front end portion (i), a rear portion (ii) and a central portion (iii), said absorbent article comprising: a topsheet layer; a backsheet layer; a fastening adhesive (PFA) applied on said backsheet garment facing surface; said absorbent article being characterized in that at least a portion of said PFA is applied in a pattern where PFA is applied in a discontinuous application such that any portion of the application is greater than 1mm and no more than 10 mm distant from another portion of the application where PFA is not applied, and said backsheet layer is a plastic film having a basis weight of less than 22 gsm. a topsheet layer; a backsheet layer; a fastening adhesive (PFA) applied on said backsheet garment facing surface; said absorbent article being characterized in that at least a portion of said PFA is applied in a pattern where PFA is applied in a discontinuous application such that any portion of the application is greater than 1mm and no more than 10 mm distant from another portion of the application where PFA is not applied, and said backsheet layer is a plastic film having a basis weight of less than 22 gsm.
A satellite constellation forming system to form a satellite constellation on a plurality of orbital planes on each of which a plurality of satellites fly as an orbit satellite group, the plurality of orbital planes having mutually different normal directions, each of the plurality of satellites in the orbit satellite group including a propulsion device to change velocity of each of the plurality of satellites in the orbit satellite group, the satellite constellation forming system comprising a satellite constellation forming unit as a functional element, wherein the functions of the satellite constellation forming unit are realized by hardware or software, configured to cause propulsion devices of the plurality of satellites in the orbit satellite group to operate in synchronization, for each orbital plane of the plurality of orbital planes, wherein the satellite constellation forming unit is configured to cause each satellite in an orbit satellite group in a first orbital plane of the plurality of orbital planes to perform an acceleration and deceleration process of repeating operation of accelerating for a first time period and then decelerating for the first time period, and causes each satellite in an orbit satellite group in an orbital plane adjacent to the first orbital plane to start the acceleration and deceleration process after a delay of a second time period from a time point when the acceleration and deceleration process is started in the first orbital plane, repeatedly for each of the plurality of orbital planes. a satellite constellation forming unit as a functional element, wherein the functions of the satellite constellation forming unit are realized by hardware or software, configured to cause propulsion devices of the plurality of satellites in the orbit satellite group to operate in synchronization, for each orbital plane of the plurality of orbital planes, wherein the satellite constellation forming unit is configured to cause each satellite in an orbit satellite group in a first orbital plane of the plurality of orbital planes to perform an acceleration and deceleration process of repeating operation of accelerating for a first time period and then decelerating for the first time period, and causes each satellite in an orbit satellite group in an orbital plane adjacent to the first orbital plane to start the acceleration and deceleration process after a delay of a second time period from a time point when the acceleration and deceleration process is started in the first orbital plane, repeatedly for each of the plurality of orbital planes.
An antenna and receiver system , the antenna and receiver system comprising: a first antenna array comprising a first plurality of antennas (120-a, 120-b, 120-c) facing a first direction, the first plurality of antennas (120-a, 120-b, 120-c) comprising: at least one main first antenna (120-a); and one or more summation first antennas (120-b, 120-c); at least one first radio-frequency (RF) receive path connected to the main first antenna (120-a) only; a second antenna array comprising a second plurality of antennas (140-a, 140-b, 140-c) facing a second direction that is substantially opposite the first direction, the second antenna array being positioned substantially opposite the first antenna array , and the second plurality of antennas (140-a, 140-b, 140-c) comprising: at least one main second antenna (140-a); and one or more summation second antennas (140-b, 140-c) ; at least one second RF receive path connected to the main second antenna (140-a) only; and one or more common RF receive paths , each common RF receive path of the common RF receive paths being connected to a distinct pair of substantially oppositely-positioned antennas comprising a given summation first antenna of the summation first antennas (120-b, 120-c) and a given summation second antenna of the summation second antennas (140-b, 140-c), so that a first signal received by the given summation first antenna and a second signal received by the given summation second antenna are combined into a respective common signal. a first antenna array comprising a first plurality of antennas (120-a, 120-b, 120-c) facing a first direction, the first plurality of antennas (120-a, 120-b, 120-c) comprising: at least one main first antenna (120-a); and one or more summation first antennas (120-b, 120-c); at least one main first antenna (120-a); and one or more summation first antennas (120-b, 120-c); at least one first radio-frequency (RF) receive path connected to the main first antenna (120-a) only; a second antenna array comprising a second plurality of antennas (140-a, 140-b, 140-c) facing a second direction that is substantially opposite the first direction, the second antenna array being positioned substantially opposite the first antenna array , and the second plurality of antennas (140-a, 140-b, 140-c) comprising: at least one main second antenna (140-a); and one or more summation second antennas (140-b, 140-c) ; at least one main second antenna (140-a); and one or more summation second antennas (140-b, 140-c) ; at least one second RF receive path connected to the main second antenna (140-a) only; and one or more common RF receive paths , each common RF receive path of the common RF receive paths being connected to a distinct pair of substantially oppositely-positioned antennas comprising a given summation first antenna of the summation first antennas (120-b, 120-c) and a given summation second antenna of the summation second antennas (140-b, 140-c), so that a first signal received by the given summation first antenna and a second signal received by the given summation second antenna are combined into a respective common signal.
A power device for a renewable power system, comprising: an enclosure ; circuitry housed within the enclosure; a temperature sensing device housed within the enclosure; first and second conductors having first ends physically secured to and within the enclosure; first and second connectors located outside the enclosure connected at second ends of the first and second conductors, respectively; a first conductive path providing an electrical connection between the first ends of the first and second conductors and the circuitry; wherein the temperature sensing device is deployed adjacently to where the first conductor and the second conductor are physically secured to the enclosure; and wherein the circuitry comprises a power converter and a controller configured to receive measurements from the temperature sensing device and to trigger an overheating response in response to a measurement indicating overheating of at least one of the first and second connectors . an enclosure ; circuitry housed within the enclosure; a temperature sensing device housed within the enclosure; first and second conductors having first ends physically secured to and within the enclosure; first and second connectors located outside the enclosure connected at second ends of the first and second conductors, respectively; a first conductive path providing an electrical connection between the first ends of the first and second conductors and the circuitry; wherein the temperature sensing device is deployed adjacently to where the first conductor and the second conductor are physically secured to the enclosure; and wherein the circuitry comprises a power converter and a controller configured to receive measurements from the temperature sensing device and to trigger an overheating response in response to a measurement indicating overheating of at least one of the first and second connectors .
A verification method, the method being performed by a verification apparatus and comprising: defining a non-operation state of a user in which, if the user is in said non-operation state, it is unlikely that the user generates an operation request on an account of the user; receiving the operation request on the account of the user and physiologic information of the user collected by a device used by the user; determining whether the device is associated with the account of the user according to an association relationship between device information of the device and the account of the user; in response to determining that the device is not associated with the account of the user, terminating processing of the operation request on the account of the user; in response to determining that the device is associated with the account of the user; determining , according to the physiologic information, whether the user is currently in said non-operation state; and when the user is determined to be in said non-operation state, processing , according to a preset rule, the operation request on the account of the user, such that real-time protection of the account of the user is provided. defining a non-operation state of a user in which, if the user is in said non-operation state, it is unlikely that the user generates an operation request on an account of the user; receiving the operation request on the account of the user and physiologic information of the user collected by a device used by the user; determining whether the device is associated with the account of the user according to an association relationship between device information of the device and the account of the user; in response to determining that the device is not associated with the account of the user, terminating processing of the operation request on the account of the user; in response to determining that the device is associated with the account of the user; determining , according to the physiologic information, whether the user is currently in said non-operation state; and when the user is determined to be in said non-operation state, processing , according to a preset rule, the operation request on the account of the user, such that real-time protection of the account of the user is provided.
A physiological sensing device for the measurement of pCO 2 , the device comprising: (i) a closed chamber bounded, at least partially, by a carbon dioxide permeable membrane; and (ii) at least two electrodes within said chamber, wherein said chamber contains a substantially electrolyte-free liquid in contact with the electrodes and the membrane; characterized in that the liquid comprises at least one metal or metalloid ion. (i) a closed chamber bounded, at least partially, by a carbon dioxide permeable membrane; and (ii) at least two electrodes within said chamber, wherein said chamber contains a substantially electrolyte-free liquid in contact with the electrodes and the membrane; characterized in that the liquid comprises at least one metal or metalloid ion.