Abstract: A helmet for anesthesia, adapted to keep confined anesthetic gases and to administer them in a non-invasive fashion to a patient laying on an operating table, allowing to provide oxygen and/or anesthetic gases through tubes and fast access to the patient's head in case of emergency is described. The helmet has a lower half-shell and an upper half-shell, the lower half-shell being anatomically shaped to receive and support the nape and the neck of the laying patient, the upper half-shell and the lower half-shell having fastening means for fastening one to the other and being configured to be fitted one to the other and to the neck or torso of the patient to form a substantially airtight enclosure for enclosing head of the patient, at least one inlet port for gas supply and at least one outlet port for gas evacuation being on the lower half-shell and/or the upper half-shell.

Abstract: A robotic surgical station is described. The robotic surgical station has a base configured to be fixed to the ground, a ring-shaped structure to which a patient bed and a plurality of robot arms are restrained at respective first and second mounts and a remote control unit that may be used by a surgeon to carry out a surgical intervention on a patient.

Abstract: A body surgical suit to be worn by surgery patients during surgical procedures, said body surgical suit being configured to encase the limbs and torso of a patient is described. The body surgical suit has one or more openings allowing to access one or more portions of the body of a patient wearing the body surgical suit, one or more sensors configured to monitor the patient's vital signs, a control monitor configured to control operation of the sensors, and selectively operatable contractive elements arranged in the legs and/or arms portions and configured to allow peristaltic movement of blood in the arms and legs of a patient wearing the body surgical suit.

Abstract: A patient holding hospital unit is described. The patient holding hospital unit has a supporting surface configured to receive a patient and a life support system. The supporting surface has a container restrained to the supporting surface that contains an anesthesia machine, reservoirs and related ducts, perfusion devices, an automatic control system, a power supply unit, a power supply line. The container also has dispensing valves arranged on an external surface of the container together with a control interface and the supply valves and electric connector of the power supply line are arranged at a connecting member adapted to be mounted to a base member configured to supply gases under pressure to the reservoirs and power to the control system.

Abstract: A robotic surgical station is described. The robotic surgical station has a base configured to be fixed to the ground, a ring-shaped structure to which a patient bed and a plurality of robot arms are restrained at respective first and second mounts and a remote control unit that may be used by a surgeon to carry out a surgical intervention on a patient.

Abstract: A body surgical suit to be worn by surgery patients during surgical procedures, said body surgical suit being configured to encase the limbs and torso of a patient is described. The body surgical suit has one or more openings allowing to access one or more portions of the body of a patient wearing the body surgical suit, one or more sensors configured to monitor the patient's vital signs, a control monitor configured to control operation of the sensors, and selectively operatable contractive elements arranged in the legs and/or arms portions and configured to allow peristaltic movement of blood in the arms and legs of a patient wearing the body surgical suit.

Abstract: A patient holding hospital unit is described. The patient holding hospital unit has a supporting surface configured to receive a patient and a life support system. The supporting surface has a container restrained to the supporting surface that contains an anesthesia machine, reservoirs and related ducts, perfusion devices, an automatic control system, a power supply unit, a power supply line. The container also has dispensing valves arranged on an external surface of the container together with a control interface and the supply valves and electric connector of the power supply line are arranged at a connecting member adapted to be mounted to a base member configured to supply gases under pressure to the reservoirs and power to the control system.

Abstract: A helmet for anesthesia, adapted to keep confined anesthetic gases and to administer them in a non-invasive fashion to a patient laying on an operating table, allowing to provide oxygen and/or anesthetic gases through tubes and fast access to the patient's head in case of emergency is described. The helmet has a lower half-shell and an upper half-shell, the lower half-shell being anatomically shaped to receive and support the nape and the neck of the laying patient, the upper half-shell and the lower half-shell having fastening means for fastening one to the other and being configured to be fitted one to the other and to the neck or torso of the patient to form a substantially airtight enclosure for enclosing head of the patient, at least one inlet port for gas supply and at least one outlet port for gas evacuation being on the lower half-shell and/or the upper half-shell.